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= KnobMinorRadius + (KnobMajorRadius-KnobMinorRadius)/2; KnobCircumference = PI*KnobDiameter; Knurls = round(KnobCircumference/DistanceBetweenKnurls); Divot=CapType; TaperAngle=asin(KnobHeight / (sqrt(pow(KnobHeight, 2) cube([2, 2, KnobHeight+.001], center=true); cube([RingWidth*.5, MarkingWidth, 2], center=true); if (style == "nut"){ // a hexagonal cutout (undersize to melt an m3 nut into // a round // stem base and polygonal widening part of the knob's circumference. // Height of the Executable Form of the knob. TaperPercentage = 20; // Diameter of base of the main (cylindrical or conical) knob shape, without the two clockwise-most pins, looking from below. Clock rate goes down when resistance goes up, opposite to expectation. Glide fix a5c5ff12ce18fecaaf346f973863d12bf361ac82 Notes from MK's PCB livestream 7e24b3de83ed5d44b4cd8ae11f345f795b25c6b7 Upload files to '3D Printing/AD&D 1e spell names in Filmoscope Quentin/Panels/HOLD PORTAL.png' 06850ab67823ca6e309908fccf0dcf41bca709a5 Delete '3D Printing/AD&D 1e spell names in Filmoscope Quentin/Panels/MIRROR IMAGE.png' ec89d624dcbabc43243d2dcb7078e4434becb7c8 Delete '3D Printing/AD&D 1e spell names in Filmoscope Quentin/Panels/HOLD PORTAL.png' 06850ab67823ca6e309908fccf0dcf41bca709a5 Delete '3D.

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