thehd_bl = -thehd_tr;
thehd_br = -thehd_tl;
+tablet_z_slop = rearcurve_z_slop;
+
interlock_rad = interlock_dia/2;
interlock_negative_rad = interlock_rad + 0.125;
crossoff = tile_hard_edge_hole_dist + POST_TCROSSSZ/2;
cidsz = [ thehd[0], size[1] - 2*crossoff ];
cidszr = [ cidsz[0], min(cidsz[1], 50) ];
- translate( concat(botleft + [0, crossoff] + (cidsz-cidszr)/2, [0]) )
- Commitid_BestCount(cidszr);
difference(){
mirror([0,0,1]) {
translate(concat(botleft + [test_edge,test_edge], [test_tile_th]))
translate(concat(botleft_post, [-1]))
cube(concat(topright_post-botleft_post, [tile_th+2]));
}
+ shufflesz = max(test_edge, tile_hard_edge_hole_dist)*2;
minkowski(){
- Machine();
- cube(max(test_edge, tile_hard_edge_hole_dist)*2, center=true);
+ MachineEnvelope();
+ cube(shufflesz, center=true);
}
}
}
machine_front_profile);
skew_angle = atan2( first_front[1] - first_rear[1],
first_front[0] - first_rear[0] );
- echo(below_point, pol, skew_angle);
+ //echo(below_point, pol, skew_angle);
hull(){
for (z=[0,-40]) {
translate([0,z]) {
sh = -[abs(posbox[0]), abs(posbox[1])];
rot = atan2(-sideline[0], sideline[1]);
sc = scaleline_mm / scaleline;
- echo("SH",sh,rot,sc);
+ //echo("SH",sh,rot,sc);
scale(sc) rotate(rot) translate(sh){
import("sewing-table-rear-profile.dxf", convexity=10); // spline, Pink3
}
module Machine_NewRearCurve(){
slant = atan2(4,210-10);
- echo("SL",slant);
+ //echo("SL",slant);
translate([0,0, rearcurve_double_inrad]) rotate([slant,0,0]){
translate([ rearcurve_double_inrad,
0,
//%cube([20,20,20]);
translate([ -reartablet_x,
-1,
- -reartablet_z])
+ -reartablet_z + tablet_z_slop])
mirror([0,0,1])
cube([ reartablet_x+1,
reartablet_y+1,
Machine_Curves();
}
+module MachineEnvelope(){
+ // used for testing
+ p_arm_bl = [-cutout_tile11_x, -cutout_tile01_y];
+ y_arm_t = cutout_tile11_y;
+ p_crv_fl = p_arm_bl + [rearedge_len, -frontcurve_avoid_y];
+ y_crv_b = y_arm_t + rearcurve_avoid_y;
+
+ translate([0,0,-50]) linear_extrude(height= 100){
+ translate(p_arm_bl) square([400, y_arm_t] - p_arm_bl);
+ translate(p_crv_fl) square([400, y_crv_b] - p_crv_fl);
+ }
+}
+
function Rectangle_corners(c0, sz) =
// returns the corners of a rectangle from c0 to c0+sz
// if sz is positive, the corners are anticlockwise starting with c0
m4_dnl that denoted by ix, and the next one anticlockwise
m4_define(`R_EDGE',`$1[$2],$1[(($2)+1)%4]')
-module FitTest_general(c0,sz){
+module FitTest_general(c0,sz, dobrace=false){
c = Rectangle_corners(c0, sz);
brace = [7,7,9];
difference(){
union(){
Rectangle_TileBase(c);
- translate(concat(c0, [-brace[2] + 0.1])){
- difference(){
- cube(concat(sz,[brace[2]]) - [5,0,0]);
- translate(brace + [0,0, -25])
- cube(concat(sz, [50]) - brace*2 + [10,0,0]);
+ if (dobrace) {
+ translate(concat(c0, [-brace[2] + 0.1])){
+ difference(){
+ cube(concat(sz,[brace[2]]) - [5,0,0]);
+ translate(brace + [0,0, -25])
+ cube(concat(sz, [50]) - brace*2 + [10,0,0]);
+ }
}
}
RoundEdge(R_EDGE(c,1));
}
module FitTest_Entire(){ ////toplevel
- FitTest_general([-40,-80], [275,180]);
+ FitTest_general([-40,-80], [275,180], dobrace=true);
}
module FitTest_RearCurve(){ ////toplevel
//Machine_Curves();
//Machine();
//FitTest();
+//MachineEnvelope();