3
1
Back

// Small amount of overlap for unions and differences, to prevent z-fighting. // Degrees per fragment of a Contributor if it can fit; losing the bodge area. Assembly Tests: Glide In - U1-13 (can get at from top when assembled Stop Switch - 10 LEDs 3 sockets 6 sockets Potentiometers: One potentiometer for internal clock rate. Binary files /dev/null and b/3D Printing/Panels/AD&D 1e spell names in Filmoscope 3D Printing/Panels/AD&D 1e spell names in Filmoscope Quentin' Delete '3D Printing/AD&D 1e spell names in Filmoscope Quentin/Panels/PRISMATIC SPHERE.png and /dev/null differ QuentinEF.ttf Normal file Unescape left_rib_x = thickness * 1; right_rib_x = width_mm - thickness*2; left_rib_x = hole_dist_side + thickness; v_margin = hole_dist_top*2 + thickness; working_height = height - v_margin - title_font_size*2; saw_out = [output_column, bottom_row, 0]; c_tune = [width_mm/2, top_row, 0]; left_rib_x = 0; // [0:No, 1:Yes] ////////////////////////// ////////////////////////// RingThickness = 5*1; DivotDepth = 1.5*1; DistanceBetweenKnurls = 3*1; TimerKnobConst = 1.8*1; PI=3.14159265*1; KnobMajorRadius = KnobDiameter/2; KnobMinorRadius = KnobDiameter/2 * (1 - TaperPercentage/100); KnobRadius = KnobMinorRadius + (KnobMajorRadius-KnobMinorRadius)/2; KnobCircumference = PI*KnobDiameter; Knurls = round(KnobCircumference/DistanceBetweenKnurls); Divot=CapType; TaperAngle=asin(KnobHeight / (sqrt(pow(KnobHeight, 2) pow(KnobMajorRadius-KnobMinorRadius,2)))) - 90; hole_bottom = hole_top - 90; DivotRadius = KnobMinorRadius*.4; // Primary knob cylinder for (i=[0 : Knurls-1] rotate([0, 0, 45] cube([2, 2, KnobHeight+.001], center=true); cube([RingWidth*.5, MarkingWidth, 2], center=true); if (Pointer2==1 cube([8, 3, KnobHeight], center=true); if (style == "nut"){ // a hexagonal cutout (undersize to melt an m3 nut into // a round // stem base and panel: 60mm slider - 7mm, +4mm extra thunkicons - 8.9mm, +3.5mm, make sure.

New Pull Request