Open geodave810 opened 9 years ago
Hello, I have done modifications to your data file (attached), that I noted with '!!' :
Did you have any comments/complements before publication ?
Regards, Pierre
Le 13/10/2015 01:03, David a écrit :
I really like your delta simulator & created a data set for a delta design I am thinking about building. I ran into a couple of limitations of openscad that I had to get around. In your Delta_simulator.scad, I added the new data set on line 108 as shown in next paragraph & had to comment out line 211 so the data_Delta-Six.scad file would draw the frame. I included a link to the data file and an animation .gif below. I also had to define: beam_int_radius = 236.506; rather than using a formula: beam_int_radius = frame_rad - 10;
Line 108 added: include //V-Slot Openbuilds Delta-Six by Sage Line 211 commented out Frame(); so the data_Delta-Six routine could draw its version of the frame.
http://www.zewind.com/data_Delta-Six.scad heep://www.zewind.com/V-Slot_DeltaAnimation.gif
Here is the link the build log the author & others have on this design: http://www.openbuilds.com/builds/delta-six.476/
Thanks for a cool openSCAD program,
David
— Reply to this email directly or view it on GitHub https://github.com/PRouzeau/OpenSCAD-Delta-Simulator/issues/1.
Pierre Rouzeau - Proud indigenous of old Europe
L'absence de virus dans ce courrier électronique a été vérifiée par le logiciel antivirus Avast. https://www.avast.com/antivirus
// Data Set for Openbuilds Delta-Six, designed by Sage Delta_name = "Delta-Six by Sage"; // Geodave 810, October, 2015 - adaptation and mods by PRZ noted by !! // See http://www.openbuilds.com/builds/delta-six.476 for files // See also http://www.zewind.com/data_Delta-Six.scad //!! for faster simulation, the below rebuilt of the Vertexes could have been replaced by STL includes. //!! In the same way as frame replace, defining $bEffector as true allow to include/build the effector with buildEffector(); and $bCar set true allow carriage/build include with buildCar();
$bAllFrame = true; // replace frame by following routine - no need to modify the simulator program module buildAllFrame() { DrawFinal();} //run by the simulator in 'simul' module *DrawFinal(); // use for development only
//*** -- beam_int_radius = frame_rad - 10; //Main routine complains if not a constant //beam_int_radius=193.204; //for 300mm length horizontals //beam_int_radius=308.674; //for 500mm length horizontals beam_int_radius=236.506; //for 375mm length horizontals //beam_int_radius = 308.674; //echo("beam_int_radius = ",beam_int_radius);
//beam_int_radius = 187.3; // radius inside the columns - used as reference radius //beam_int_radius=236.38; //for 375mm length horizontals //beam_int_radius=308.67; //for 500mm length horizontals //beam_int_radius =20; hbase= 46; // height of the base structure !! htop = 40; // height of top structure !! htotal= 800; //!! total height, including base and top structure. This variable shall be used by the below program to have true vertical travels housing_base=0; bed_level = 10; // !!
extrusion = 0; //!! Neutralise original extrusion drawing $bedDia=1; //!! neutralise original bed
car_hor_offset= 15; //!! from Scad files for Traxxas links - Offset for mag links is higher hcar = 86; car_vert_dist = 25; top_clearance=15; // clearance between top of the carriage and top structure
eff_hor_offset= 37; //!! as defined in SCAD file
eff_vert_dist = 4;
arm_space= 55; //!! space between the arms, as defined in configuration file
//delta_angle = 60;
arm_length = 340; // supersedes delta_angle
mini_angle = 20; // !! Not defined in original description, but comply with bed size as shown
hotend_vert_dist = 12;
dia_ball= 8;
dia_arm = 6;
railthk =0;
railwidth =0;
rail_base=0;
frame_corner_radius=100;
frame_face_radius= 0;
corner_offset=-65;
belt_dist=0;
spool_diam = 0;
spool_thk = 0;
//$vpt=[-96.47,108.38,198.51];
//$vpr =[55,0,25];
$vpd=camPos?2900:$vpd; //!! camera distance: work only if set outside a module
$vpr=camPos?[80,0,42]:$vpr; //!! camera rotation
$vpt=camPos?[152,-90,530]:$vpt; //!! camera translation
//frame_color = [0.7,0.25,0.7,0.98];
//plate_color = [0.7,0.7,1.0,0.5];
//rod_color=[0.1,0.1,0.1,0.88];
//v_slot_color="silver";
//include
//****These 14 variables are for 1x 2020 Bottom, Top Horizontal & Vertical extrusions //Alum_BaseHorWid = 20; //Size of Extrusions to use for Base //Alum_BaseHor_Z = 10; //10 for 2020, 30 for 2040, 50 for 2060 & 70 for 2080 //Alum_BaseGap = 0; //Gap between extrusions //Alum_BaseQty = 1; //How many Extrusions on Base //Alum_TopHorWid = 20; //Top Size of Extrusions to use for Top //Alum_TopHor_Z = 10; //10 for 2020, 30 for 2040, 50 for 2060 & 70 for 2080 //Alum_TopGap = 0; //Gap between extrusions //Alum_TopQty = 1; //How many Extrusions on Base //Printer_Xadd = 44.34; //2020 Vertical For Calculating X overall dimension of Printer //Alum_VertWid = 20; //use 20, 40, 60 or 80 for Vertical Extrusions //Alum_VertGap = 0; //Gap between Top extrusions (only used when Alum_TopQty = 2) //Alum_VertQty = 1; //How many vertical Extrusions at each Vertex //Vertex_X_offset = 20.98; //X Offset from end of 2020 Alum. Horizontal to Center of Vertical //Vertex_Y_offset = 16.34; //Y Offset from end of 2020 Alum. Horizontal to Center of Vertical
//****These 14 variables are for 2x 2020 Bottom, Top Horizontal & 2x Vertical extrusions //Alum_BaseHorWid = 20; //Size of Extrusions to use for Base //Alum_BaseHor_Z = 10; //10 for 2020, 30 for 2040, 50 for 2060 & 70 for 2080 //Alum_BaseGap = 20; //Gap between Bottom extrusions (only used when Alum_BaseQty = 2) //Alum_BaseQty = 2; //How many Extrusions on Base //Alum_TopHorWid = 20; //Top Size of Extrusions to use for Top //Alum_TopHor_Z = 10; //10 for 2020, 30 for 2040, 50 for 2060 & 70 for 2080 //Alum_TopGap = 20; //Gap between Top extrusions (only used when Alum_VertQty = 2) //Alum_TopQty = 1; //How many Extrusions at Top //Printer_Xadd = 44.34; //2020 Vertical For Calculating X overall dimension of Printer //Alum_VertWid = 20; //use 20, 40, 60 or 80 for Vertical Extrusions //Alum_VertGap = 20; //Gap between Top extrusions (only used when Alum_TopQty = 2) //Alum_VertQty = 2; //How many vertical Extrusions at each Vertex //Vertex_X_offset = 20.98; //X Offset from end of 2060 Alum. Horizontal to Center of Vertical //Vertex_Y_offset = 16.34; //Y Offset from end of 2060 Alum. Horizontal to Center of Vertical
//****These 14 variables are for 1x 2040 Bottom, Top Horizontal & Vertical extrusionsf Alum_BaseHorWid = 40; //Size of Extrusions to use for Base Alum_BaseHor_Z = 30; //10 for 2020, 30 for 2040, 50 for 2060 & 70 for 2080 Alum_BaseGap = 0; //Gap between extrusions Alum_BaseQty = 1; //How many Extrusions on Base Alum_TopHorWid = 40; //Size of Extrusions to use for Top Alum_TopHor_Z = 30; //10 for 2020, 30 for 2040, 50 for 2060 & 70 for 2080 Alum_TopGap = 0; //Gap between extrusions Alum_TopQty = 1; //How many Extrusions at Top Printer_Xadd = 54.34; //2040 Vertical For Calculating X overall dimension of Printer Alum_VertWid = 40; //use 20, 40, 60 or 80 for Vertical Extrusions Alum_VertGap = 0; //Gap between Top extrusions (only used when Alum_TopQty = 2) Alum_VertQty = 1; //How many vertical Extrusions at each Vertex Vertex_X_offset = 25.98; //X Offset from end of 2040 Alum. Horizontal to Center of Vertical Vertex_Y_offset = 25.0; //Y Offset from end of 2040 Alum. Horizontal to Center of Vertical
//****These 14 variables are for 1x 2060 Bottom, Top Horizontal & Vertical extrusions //Alum_BaseHorWid = 60; //Size of Extrusions to use for Base //Alum_BaseHor_Z = 50; //10 for 2020, 30 for 2040, 50 for 2060 & 70 for 2080 //Alum_BaseGap = 0; //Gap between extrusions //Alum_BaseQty = 1; //How many Extrusions on Base //Alum_TopHorWid = 60; //Size of Extrusions to use for Top //Alum_TopHor_Z = 50; //10 for 2020, 30 for 2040, 50 for 2060 & 70 for 2080 //Alum_TopGap = 0; //Gap between extrusions //Alum_TopQty = 1; //How many Extrusions at Top //Printer_Xadd = 64.4; //2060 Vertical For Calculating X overall dimension of Printer //Alum_VertWid = 60; //use 40, 60 or 80 for Vertical Extrusions //Alum_VertGap = 0; //Gap between Top extrusions (only used when Alum_TopQty = 2) //Alum_VertQty = 1; //How many vertical Extrusions at each Vertex //Vertex_X_offset = 31.01; //X Offset from end of 2060 Alum. Horizontal to Center of Vertical //Vertex_Y_offset = 33.71; //Y Offset from end of 2060 Alum. Horizontal to Center of Vertical
//****These 14 variables are for 1x 2080 Bottom, Top Horizontal & Vertical extrusions //Alum_BaseHorWid = 80; //Size of Extrusions to use for Base //Alum_BaseHor_Z = 70; //10 for 2020, 30 for 2040, 50 for 2060 & 70 for 2080 //Alum_BaseGap = 0; //Gap between extrusions //Alum_BaseQty = 1; //How many Extrusions on Base //Alum_TopHorWid = 80; //Size of Extrusions to use for Top //Alum_TopHor_Z = 70; //10 for 2020, 30 for 2040, 50 for 2060 & 70 for 2080 //Alum_TopGap = 0; //Gap between extrusions //Alum_TopQty = 1; //How many Extrusions at Top //Printer_Xadd = 74.4; //2080 Vertical For Calculating X overall dimension of Printer //Alum_VertWid = 80; //use 40, 60 or 60 for Vertical Extrusions //Alum_VertGap = 0; //Gap between Top extrusions (only used when Alum_TopQty = 2) //Alum_VertQty = 1; //How many vertical Extrusions at each Vertex //Vertex_X_offset = 36.01; //X Offset from end of Alum. Horizontal to Center of Vertical //Vertex_Y_offset = 42.37; //Y Offset from end of Alum. Horizontal to Center of Vertical
//This seems to be center of vertical to corner of where horizontals meet, (not sure I need this) //vertex_offset = 50.22; //For 2020 size Vertical //This seems to be center of vertical to corner of where horizontals meet, (not sure I need this) //vertex_offset = 50; //For 2040 size Vertical //This seems to be center of vertical to corner of where horizontals meet, (not sure I need this) //vertex_offset = 67.43; //For 2060 size Vertical (2x 2020 with 20mm gap) //This seems to be center of vertical to corner of where horizontals meet, (not sure it is needed) //vertex_offset = 67.43; //For 2060 size Vertical //This seems to be center of vertical to corner of where horizontals meet, (not sure I need this) //vertex_offset = 84.75; //For 2080 size Vertical Glass_Z_Offset = 4; //Offset of Glass above Frame Glass_Thk = 3; //Glass Thickness //======================================================== M5 = 5.5; //Hole Diameter HoleRes = 24; //Resolution of small Holes sin60 = 0.866025; cos60 = 0.5;
explode = 0.0; // set > 0.0 to push the parts apart (***Not implemented yet)
//These 2 variables are the same for any of the 2020, 2040, 2060 or 2080 extrusions //Car_OriginOffset_Y = 12; //Origin Offset of Carriages from Centerline of Vertical Extrusion //CarHorOff = 24; //Offset from Center line of Vertical Aluminums to Centerline of carriage arm connector //CarVerOff = 76.36 + (Frame_Top_Ht - 40); //Offset from Top of Frame to Centerline of carriage arm connector //echo("CarVerOff = ", CarVerOff); //Ef_Off = 37; //horizontal distance from center to pivot
//Eff_Half = Eff_Ht / 2;
//Calculate total Width of Verticals so we know which vertex to use Alum_VertTopWid = Alum_VertWid * Alum_VertQty + Alum_VertGap; //echo("Alum_VertTopWid = ", Alum_VertTopWid); //distance from center to center of Vertical extrusion & also origin of Vertex Plastic Part //This is the Delta Radius frame_rad = ((Frame_Ext_Len / 2) + Vertex_X_offset) / sin60; echo("frame_rad = ",frame_rad);
//15.23 is distance from Centerline of Vertical extrusion to outside edge of Plastic Vertex //Printer_Y = (frame_rad * 2) + (15.23 * 2); //Printer_X = (Printer_Xadd * 2) + Frame_Ext_Len; //Overall X Dimension of Printer //Print_Radius = frame_rad - (Frame_Ext_Wid / 2); //Arm_HorDist = frame_rad - EfOff - CarHorOff; //echo("**Arm_HorDist = ",Arm_HorDist); //Arm_Len = Arm_HorDist / sin(Delta_Ang_1st); //Arm length based on Delta_Ang_1st //echo("Arm_Len = ",Arm_Len); //Display calculated length based on orginal Delta_Angle //I had to use a temporary variable for Angle initially, since openscad does not seem to like me //redefining that variable after it was used //This allows user to change either the angle or the length of the arms //========================================= //=== Change Arm Length Variable Here ===== //========================================= //DELTA_DIAGONAL_ROD = Arm_Len; //Change this to what length you want //DELTA_DIAGONAL_ROD = 288; //DELTA_DIAGONAL_ROD = 250; //echo("DELTA_DIAGONAL_ROD = ",DELTA_DIAGONAL_ROD); //Re calculate Delta Angle & Vertical distance in case Arm Length was changed //Delta_Ang = asin(Arm_HorDist / DELTA_DIAGONAL_ROD); //echo("Delta_Ang = ",Delta_Ang); //echo("6x Horizontal Extrusions = ",Frame_Ext_Len,"mm"); //echo("3x Vertical Extrusions = ",Frame_Ext_Ht,"mm"); //Arm_VerDist = Arm_HorDist / tan(Delta_Ang); //RotRod = -Delta_Ang; //RotRod_Y = RotRod; //RotRod_X = RotRod; //RotRod_Z = RotRod; // //Rod_X = 30.5; //X offset of diagonal Arms //Rod_Y = 37; //Y offset from Center of effector //Eff_Top_Offset = Frame_Ext_Ht - (Arm_VerDist + CarVerOff + Eff_Half); //Hot_End_Z = (Eff_Top_Offset + Eff_Ht) - HotEnd_Ht; //echo("Frame_Ext_Ht",Frame_Ext_Ht); //echo("Arm_VerDist",Arm_VerDist); //echo("CarVerOff",CarVerOff); //echo("Eff_Half",Eff_Half); //echo("Eff_Top_Offset",Eff_TopOffset); //Eff_Top_Offset is off
//echo("=========Hot_End_Z = ",Hot_End_Z); //echo("Frame_Ext_Ht = ",Frame_Ext_Ht); //echo("Arm_VerDist = ",Arm_VerDist); //echo("CarVerOff = ",CarVerOff); //echo("Eff_Half = ",Eff_Half); //echo("Eff_Top_Offset = ",Eff_Top_Offset); //echo("asin(.511) = ",asin(0.5115816007)); //echo("*****"); Glass_Ht = Frame_Motor_Ht + Alum_BaseThk + Glass_Z_Offset; //endstop_Ht = 55; //Height of extrusion should be this number //carriage_length = 50.7/2; //half Length of Carriage along the Z axis //calc_carriage_Ht = Frame_Ext_Ht - (Frame_Top_Ht - 40) - carriage_length - endstop_Ht; //echo("calc_carriage_Ht = ",calc_carriage_Ht); //calc_carriage_Ht = 668.65 - 339.7; //Original Height - build Height //calc_carriage_Z = calc_carriage_Ht; //calc_carriage_X = calc_carriage_Ht; //calc_carriage_Y = calc_carriage_Ht; // //Calc_Endstop_z = Frame_Ext_Ht - endstop_Ht;
Frame_half = Frame_Ext_Len / 2; echo("Frame_half = ", Frame_half); Len=Frame_half+Vertex_X_offset; //echo("Len = ",Len);
frame_top = Frame_Ext_Ht - 20 + explode;
Len=Frame_half+Vertex_X_offset; frame_r1 = Len / sin60; //Distance from Center to Center of Vertical Extrusions //echo("frame_r1 = ",frame_r1); Y_Vertex = frame_r1 / 2; //Y offset from center to insert Vertices //echo("Y_Vertex = ",Y_Vertex); Alum_Y = Y_Vertex + Vertex_Y_offset; //Y offset from center to insert horizontal extrusions echo("Alum_Y = ",Alum_Y); BedRad = Alum_Y - 10; echo("BedRad =",BedRad); frame_color = [0.7,0.25,0.7,0.98]; plate_color = [0.7,0.7,1.0,0.5]; rod_color=[0.1,0.1,0.1,0.88]; v_slot_color="silver";
module DrawHorizontalAlumFrame() { V_Slot_H(); rotate([0,0,120]) V_Slot_H(); rotate([0,0,-120]) V_Slot_H(); } module DrawHorBaseAlumFrame() { V_Slot_H(Alum_BaseHorWid,Alum_BaseHor_Z + Alum_BaseThk); rotate([0,0,120]) V_Slot_H(Alum_BaseHorWid,Alum_BaseHor_Z + Alum_BaseThk); rotate([0,0,-120]) V_Slot_H(Alum_BaseHorWid,Alum_BaseHor_Z + Alum_BaseThk); } module DrawHorTopAlumFrame() { V_Slot_H(Alum_TopHorWid,Alum_TopHor_Z); rotate([0,0,120]) V_Slot_H(Alum_TopHorWid,Alum_TopHor_Z); rotate([0,0,-120]) V_Slot_H(Alum_TopHorWid,Alum_TopHor_Z); } module V_Slot_H(Htype = Alum_BaseHorWid,Z_Ht = Alum_BaseHor_Z) { if (Htype == 20) { translate([-Frame_half,-Alum_Y,Z_Ht]) rotate([0,90,0]) V_Slot_20x20(Frame_Ext_Len); } if (Htype == 40) { translate([-Frame_half,-Alum_Y,Z_Ht]) rotate([0,90,0]) V_Slot_20x40(Frame_Ext_Len); } if (Htype == 60) { translate([-Frame_half,-Alum_Y,Z_Ht]) rotate([0,90,0]) V_Slot_20x60(Frame_Ext_Len); } if (Htype == 80) { translate([-Frame_half,-Alum_Y,Z_Ht]) rotate([0,90,0]) V_Slot_20x80(Frame_Ext_Len); } } module Vertex_Motor() { if (Alum_VertTopWid == 20) { Vertex2020_Motor(Frame_Motor_Ht); //Draw 1st, 2nd and 3rd bottom Vertex } if (Alum_VertTopWid == 40) { Vertex2040_Motor(Frame_Motor_Ht); //Draw 1st, 2nd and 3rd bottom Vertex } if (Alum_VertTopWid == 60) { Vertex2060_Motor(Frame_Motor_Ht); //Draw 1st, 2nd, and 3rd bottom Vertex } if (Alum_VertTopWid == 80) { Vertex2080_Motor(Frame_Motor_Ht); //Draw 1st, 2nd, and 3rd bottom Vertex } } module VertexTop(Ht_V=Frame_Top_Ht) { if (Alum_VertTopWid == 20) { Vtex2020(Ht_V); //Draw 1st, 2nd and 3rd bottom Vertex } if (Alum_VertTopWid == 40) { Vtex2040(Ht_V); //Draw 1st, 2nd and 3rd bottom Vertex } if (Alum_VertTopWid == 60) { Vtex2060(Ht_V); //Draw 1st, 2nd, and 3rd bottom Vertex } if (Alum_VertTopWid == 80) { Vtex2080(Ht_V); //Draw 1st, 2nd, and 3rd bottom Vertex } }
//Vertex2040_Motor(Frame_Motor_Ht + Alum_BaseThk);
module Vertex2040_Motor(Ht_V=Frame_Motor_Ht)
{
if (Alum_BaseThk == 0)
{
Vtex2040(Ht_V);
} else {
difference()
{
union()
{
Vtex2040(Ht_V);
translate([0,0,-Alum_BaseThk])
linear_extrude(height = Alum_BaseThk, center = false, convexity = 10)polygon(points =
[[-33.33,-12.73],[-33.05,-13.17],[-32.72,-13.58],[-32.35,-13.95],[-31.94,-14.27],
[-31.5,-14.56],[-31.03,-14.8],[-30.55,-14.98],[-30.04,-15.12],[-29.52,-15.2],
[-29,-15.23],[29,-15.23],[29.52,-15.2],[30.04,-15.12],[30.55,-14.98],
[31.03,-14.8],[31.5,-14.56],[31.94,-14.27],[32.35,-13.95],[32.72,-13.58],
[33.05,-13.17],[33.33,-12.73],[77.94,65],[54.85,65],[49.07,65],
[40.99,51],[40.71,50.56],[40.38,50.15],[40.01,49.78],[39.6,49.45],
[39.16,49.17],[38.7,48.93],[38.21,48.74],[37.7,48.61],[37.18,48.53],
[36.66,48.5],[-36.66,48.5],[-37.18,48.53],[-37.7,48.61],[-38.21,48.74],
[-38.7,48.93],[-39.16,49.17],[-39.6,49.45],[-40.01,49.78],[-40.38,50.15],
[-40.71,50.56],[-40.99,51],[-49.07,65],[-77.94,65],[-33.05,-13.17]]);
}
Vtex2040Cuts(); //Make the internal cuts
}
}
}
module Vtex2040Cuts()
{
//Vertical Extrusion opening
translate([0,0,-50])
linear_extrude(height = 100, center = false, convexity = 10)polygon(points =
[[-20.13,-10.13],[-14.5,-10.13],[-12.7,-8.32],[-7.3,-8.32],[-5.5,-10.13],
[5.5,-10.13],[7.3,-8.32],[12.7,-8.32],[14.5,-10.13],[20.13,-10.13],
[20.13,10.13],[-20.13,10.13]]);
//Big Opening
translate([0,0,-50])
linear_extrude(height = 100, center = false, convexity = 10)polygon(points =
[[-21.65,17.5],[-21.37,17.06],[-21.04,16.65],[-20.67,16.28],[-20.26,15.95],
[-19.82,15.67],[-19.35,15.43],[-18.87,15.24],[-18.36,15.11],[-17.84,15.03],
[-17.32,15],[-15.5,15],[-15.5,13.5],[15.5,13.5],[15.5,15],
[17.32,15],[17.84,15.03],[18.36,15.11],[18.87,15.24],[19.35,15.43],
[19.82,15.67],[20.26,15.95],[20.67,16.28],[21.04,16.65],[21.37,17.06],
[21.65,17.5],[30.89,33.5],[31.13,33.97],[31.31,34.45],[31.45,34.96],
[31.53,35.48],[31.56,36],[31.53,36.52],[31.45,37.04],[31.31,37.55],
[31.13,38.03],[30.89,38.5],[30.6,38.94],[30.27,39.35],[29.9,39.72],
[29.5,40.05],[29.06,40.33],[28.59,40.57],[28.1,40.76],[27.6,40.89],
[27.08,40.97],[26.56,41],[-26.56,41],[-27.08,40.97],[-27.6,40.89],
[-28.1,40.76],[-28.59,40.57],[-29.06,40.33],[-29.5,40.05],[-29.9,39.72],
[-30.27,39.35],[-30.6,38.94],[-30.89,38.5],[-31.13,38.03],[-31.31,37.55],
[-31.45,37.04],[-31.53,36.52],[-31.56,36],[-31.53,35.48],[-31.45,34.96],
[-31.31,34.45],[-31.13,33.97],[-30.89,33.5]]);
}
module Vtex2040(Ht_V=Frame_Motor_Ht)
{
//This was traced from the profile of vertex_20x40.stl
difference()
{
linear_extrude(height = Ht_V, center = false, convexity = 10)polygon(points =
[[-43.3,5],[-43.3,4.54],[-33.33,-12.73],[-33.05,-13.17],[-32.72,-13.58],
[-32.35,-13.95],[-31.94,-14.27],[-31.5,-14.56],[-31.03,-14.8],[-30.55,-14.98],
[-30.04,-15.12],[-29.52,-15.2],[-29,-15.23],[29,-15.23],[29.52,-15.2],
[30.04,-15.12],[30.55,-14.98],[31.03,-14.8],[31.5,-14.56],[31.94,-14.27],
[32.35,-13.95],[32.72,-13.58],[33.05,-13.17],[33.33,-12.73],[43.3,4.54],
[43.3,5],[25.98,15],[54.85,65],[49.07,65],[40.99,51],
[40.71,50.56],[40.38,50.15],[40.01,49.78],[39.6,49.45],[39.16,49.17],
[38.7,48.93],[38.21,48.74],[37.7,48.61],[37.18,48.53],[36.66,48.5],
[-36.66,48.5],[-37.18,48.53],[-37.7,48.61],[-38.21,48.74],[-38.7,48.93],
[-39.16,49.17],[-39.6,49.45],[-40.01,49.78],[-40.38,50.15],[-40.71,50.56],
[-40.99,51],[-49.07,65],[-54.85,65],[-25.98,15]]);
Vtex2040Cuts(); //Make the internal cuts
}
}
module V_Slot_20x20(Ht_A=Frame_Ext_Len)
{
color(v_slot_color)
rotate([0,0,-90])
difference()
{
linear_extrude(height = Ht_A, center = false, convexity = 10)polygon(points =
[[-10,-8.5],[-8.5,-10],[-4.64,-10],
[-2.84,-8.2],[-5.5,-8.2],[-5.5,-6.56],
[-2.84,-3.9],[2.84,-3.9],[5.5,-6.56],
[5.5,-8.2],[2.84,-8.2],[4.64,-10],
[8.5,-10],[10,-8.5],[10,-4.64],
[8.2,-2.84],[8.2,-5.5],[6.56,-5.5],
[3.9,-2.84],[3.9,2.84],[6.56,5.5],
[8.2,5.5],[8.2,2.84],[10,4.64],
[10,8.5],[8.5,10],[4.64,10],
[2.84,8.2],[5.5,8.2],[5.5,6.56],
[2.84,3.9],[-2.84,3.9],[-5.5,6.56],
[-5.5,8.2],[-2.84,8.2],[-4.64,10],
[-8.5,10],[-10,8.5],[-10,4.64],
[-8.2,2.84],[-8.2,5.5],[-6.56,5.5],
[-3.9,2.84],[-3.9,-2.84],[-6.56,-5.5],
[-8.2,-5.5],[-8.2,-2.84],[-10,-4.64]]);
translate([0,0,-1])
cylinder(d=M5,h=Ht_A+2,$fn=HoleRes);
}
}
module V_Slot_Vert()
{
if (Alum_VertTopWid == 20)
{
translate([10,0,0]) //Move additional 10mm to left for 2060 size
V_Slot_20x20(Frame_Ext_Ht); //Draw 1st Vertical Extrusion
}
if (Alum_VertTopWid == 40)
{
V_Slot_20x40(Frame_Ext_Ht); //Draw 1st Vertical Extrusion
}
if (Alum_VertTopWid == 60)
{
if (Alum_VertWid == 60)
{
translate([-10,0,0]) //Move additional 10mm to left for 2060 size
V_Slot_20x60(Frame_Ext_Ht); //Draw 1st Vertical Extrusion
}
if (Alum_VertWid == 20)
{
translate([-10,0,0]) //Move additional 10mm to left for 2060 size
V_Slot_20x20(Frame_Ext_Ht); //Draw 1st Vertical Extrusion
translate([30,0,0]) //Move additional 10mm to left for 2060 size
V_Slot_20x20(Frame_Ext_Ht); //Draw 1st Vertical Extrusion
}
}
if (Alum_VertTopWid == 80)
{
translate([-20,0,0]) //Move additional 10mm to left for 2060 size
V_Slot_20x80(Frame_Ext_Ht); //Draw 1st Vertical Extrusion
}
}
module V_Slot_20x40(Ht_A=Frame_Ext_Len)
{
//This was traced from the V-Slot 20x40 & taking out the small details
color(v_slot_color)
rotate([0,0,-90])
difference()
{
linear_extrude(height = Ht_A, center = false, convexity = 10)polygon(points =
[[-3.9,22.84],[-3.9,17.16],[-6.56,14.5],[-8.2,14.5],[-8.2,17.16],
[-10,15.36],[-10,4.64],[-8.2,2.84],[-8.2,5.5],[-6.56,5.5],
[-3.9,2.84],[-3.9,-2.84],[-6.56,-5.5],[-8.2,-5.5],[-8.2,-2.84],
[-10,-4.64],[-10,-8.5],[-8.5,-10],[-4.64,-10],[-2.84,-8.2],
[-5.5,-8.2],[-5.5,-6.56],[-2.84,-3.9],[2.84,-3.9],[5.5,-6.56],
[5.5,-8.2],[2.84,-8.2],[4.64,-10],[8.5,-10],[10,-8.5],
[10,-4.64],[8.2,-2.84],[8.2,-5.5],[6.56,-5.5],[3.9,-2.84],
[3.9,2.84],[6.56,5.5],[8.2,5.5],[8.2,2.84],[10,4.64],
[10,15.36],[8.2,17.16],[8.2,14.5],[6.56,14.5],[3.9,17.16],
[3.9,22.84],[6.56,25.5],[8.2,25.5],[8.2,22.84],[10,24.64],
[10,28.5],[8.5,30],[4.64,30],[2.84,28.2],[5.5,28.2],
[5.5,26.56],[2.84,23.9],[-2.84,23.9],[-5.5,26.56],[-5.5,28.2],
[-2.84,28.2],[-4.64,30],[-8.5,30],[-10,28.5],[-10,24.64],
[-8.2,22.84],[-8.2,25.5],[-6.56,25.5]]);
//Cut opening between 20x20's
translate([0,0,-1])
linear_extrude(height = Ht_A+2, center = false, convexity = 10)polygon(points =
[[-8.2,7.3],[-6.24,7.3],[-2.84,3.9],[2.84,3.9],[6.24,7.3],
[8.2,7.3],[8.2,12.7],[6.24,12.7],[2.84,16.1],[-2.84,16.1],
[-6.24,12.7],[-8.2,12.7]]);
translate([0,0,-1])
cylinder(d=M5,h=Ht_A+2,$fn=HoleRes); //Drill M5 holes
translate([0,20,-1])
cylinder(d=M5,h=Ht_A+2,$fn=HoleRes);
}
}
module GlassTab()
{
difference()
{
union()
{
cylinder(d=25.4,h=3.6,$fn=80);
translate([-12.7,12.7,0])
cube([25.4,28.2,3.6]);
}
translate([0,0,-1])
cylinder(d=3.45,h=5.6,$fn=HoleRes);
}
}
module SpiralBedClamp()
{
rotate([0,0,180])
translate([0,0,7.5])
rotate([180,0,0])
difference()
{
union()
{
linear_extrude(height = 4, center = false, convexity = 10)polygon(points =
[[-2.1,-4.16],[-2.1,-10.34],[-2.01,-10.77],[-1.74,-11.12],[-1.35,-11.31],
[-0.91,-11.33],[1.24,-10.72],[3.24,-9.77],[5.02,-8.5],[6.56,-6.96],
[7.78,-5.2],[8.67,-3.26],[9.2,-1.23],[9.35,0.44],[9.34,1.28],
[9.04,3.31],[8.54,4.86],[7.61,6.65],[6.38,8.22],[4.83,9.55],
[3.14,10.51],[1.32,11.11],[-0.93,11.34],[-2.62,11.16],[-4.37,10.61],
[-5.94,9.72],[-7.27,8.55],[-8.31,7.15],[-9,5.58],[-9.33,3.94],
[-9.28,2.29],[-8.87,0.77],[-8.13,-0.62],[-7.1,-1.76],[-5.88,-2.58],
[-4.51,-3.06],[-3.15,-3.17],[-2.72,-3.24],[-2.36,-3.49],[-2.2,-3.74]]);
translate([0,0,4])
linear_extrude(height = 3.5, center = false, convexity = 10)polygon(points =
[[-2.1,-2.64],[-2.1,-7.27],[-2.01,-7.68],[-1.77,-8.02],[-1.41,-8.22],
[-0.99,-8.26],[0.44,-7.81],[2.03,-6.99],[3.1,-6.2],[4.04,-5.28],
[4.95,-4.08],[5.57,-2.94],[6.01,-1.76],[6.2,-0.94],[6.32,-0.11],
[6.34,0.51],[6.31,1.54],[6.09,2.74],[5.7,3.89],[5.09,5.02],
[4.32,6.03],[3.54,6.77],[2.46,7.5],[1.17,8.05],[0.11,8.29],
[-1.16,8.33],[-2.36,8.14],[-3.48,7.71],[-4.34,7.18],[-5.07,6.52],
[-5.73,5.62],[-6.12,4.74],[-6.33,3.73],[-6.32,2.86],[-6.14,2.03],
[-5.99,1.65],[-5.78,1.27],[-5.72,1],[-5.53,0.49],[-5.13,-0.22],
[-4.58,-0.82],[-3.91,-1.29],[-3.16,-1.6],[-2.76,-1.7],[-2.52,-1.83],
[-2.32,-2.02],[-2.18,-2.25],[-2.1,-2.64]]);
}
translate([-2.14,1.98,-1])
cylinder(d=6,h=5,$fn=HoleRes);
translate([-2.14,1.98,3])
cylinder(d=3.5,h=6,$fn=HoleRes);
}
}
module GlassTabs()
{
color(frame_color)
{
translate([0,-Alum_Y,Frame_Motor_Ht + Alum_BaseThk])
GlassTab();
translate([0,-Alum_Y,Frame_Motor_Ht + Alum_BaseThk + 3.6])
SpiralBedClamp();
}
}
//======================================================================
//=== This is where Vertices & Aluminum of the Delta is put together ===
//======================================================================
module DrawFrame()
{
//Draw Bottom Vertex corners
color(frame_color)
{
for (z = [-120:120:120])
{
rotate([0,0,z])
translate([0,frame_rad,Alum_BaseThk])
rotate([0,0,180])
Vertex_Motor(Frame_Motor_Ht);
}
//Draw Top Vertex corners
for (z = [-120:120:120])
{
rotate([0,0,z])
translate([0,frame_rad,Frame_Ext_Ht-Frame_Top_Ht])
rotate([0,0,180])
VertexTop(Frame_Top_Ht); //Draw 1,2,3 top Vertex
}
}
//Draw the Bottom Horizontal Aluminum Extrusion(s)
DrawHorBaseAlumFrame();
if (Alum_BaseQty == 2)
{
translate([0,0,Alum_BaseHorWid + Alum_BaseGap])
DrawHorBaseAlumFrame();
}
//Draw the Top Horizontal Aluminum Extrusion(s)
translate([0,0,Frame_Ext_Ht - Alum_TopHorWid])
DrawHorTopAlumFrame(); //Draw Top Aluminum Frame
if (Alum_TopQty == 2)
{
translate([0,0,Frame_Ext_Ht - Alum_TopHorWid - Alum_TopHorWid - Alum_TopGap])
DrawHorTopAlumFrame(); //Draw Top Aluminum Frame
}
//Draw Vertical Aluminum extrusions translate([-Len,-Y_Vertex,0]) rotate([0,0,-60]) translate([-10,0,0]) V_Slot_Vert(); //V_Slot_20x40(Frame_Ext_Ht); //Draw 1st Vertical Extrusion
translate([Len,-Y_Vertex,0])
rotate([0,0,60])
translate([-10,0,0])
V_Slot_Vert();
//V_Slot_20x40(Frame_Ext_Ht); //Draw 2nd Vertical Extrusion
translate([0,frame_rad,0])
rotate([0,0,0])
translate([-10,0,0])
V_Slot_Vert();
//V_Slot_20x40(Frame_Ext_Ht); //Draw 3rd Vertical Extrusion
} module DrawFinal() { DrawFrame(); //Draw Alum. Extusions & 6 Vertices
GlassTabs();
rotate([0,0,120])
GlassTabs();
rotate([0,0,-120])
GlassTabs();
//Draw Glass Build Plate translate([0,0,Glass_Ht]) color(plate_color) cylinder(r=BedRad+5,h=Glass_Thk); //Draw Build plate cylinder } //module frame() //{ // //Dummy routine to bypass main routine //}
Cool, looks like it works well now. You did a great job on making this modular & figuring out the kinetic movements. Here are a few comments for you on the changes.
The reason I did not use imported .stl files was I was able to render (F6) in the calculator program & be able to export a final design .stl file. If I used the .stl files imported, openscad would not generate that file. This allows me to double check dimensions of the model in a CAD program. Having only one file associated with this dataset also makes for less files to keep track of.
You can remove the commented out //module frame() section at the very bottom since it is not needed
You can remove the 3 code lines //V-Slot_20x40(Frame_Ext_Ht); near the bottom.
I saw the indentation within the code was lost when pasted in this email. Will the indentation be there on the published version?
I could add a carriage to this that I drew for the calculator, but not sure it would add much to the simulation.
You can take out this comment line as I will probably delete that file from there once it is your github, // See also http://www.zewind.com/data_Delta-Six.scad
Thanks for quick response,
David
From: PRouzeau [mailto:notifications@github.com] Sent: Tuesday, October 13, 2015 6:18 AM To: PRouzeau/OpenSCAD-Delta-Simulator Cc: David Subject: Re: [OpenSCAD-Delta-Simulator] Added a new data set for a V-Slot Delta-Six design (#1)
Hello, I have done modifications to your data file (attached), that I noted with '!!' :
Did you have any comments/complements before publication ?
Regards, Pierre
Le 13/10/2015 01:03, David a écrit :
I really like your delta simulator & created a data set for a delta design I am thinking about building. I ran into a couple of limitations of openscad that I had to get around. In your Delta_simulator.scad, I added the new data set on line 108 as shown in next paragraph & had to comment out line 211 so the data_Delta-Six.scad file would draw the frame. I included a link to the data file and an animation .gif below. I also had to define: beam_int_radius = 236.506; rather than using a formula: beam_int_radius = frame_rad - 10;
Line 108 added: include //V-Slot Openbuilds Delta-Six by Sage Line 211 commented out Frame(); so the data_Delta-Six routine could draw its version of the frame.
http://www.zewind.com/data_Delta-Six.scad heep://www.zewind.com/V-Slot_DeltaAnimation.gif
Here is the link the build log the author & others have on this design: http://www.openbuilds.com/builds/delta-six.476/
Thanks for a cool openSCAD program,
David
— Reply to this email directly or view it on GitHub https://github.com/PRouzeau/OpenSCAD-Delta-Simulator/issues/1.
Pierre Rouzeau - Proud indigenous of old Europe
L'absence de virus dans ce courrier électronique a été vérifiée par le logiciel antivirus Avast. https://www.avast.com/antivirus
// Data Set for Openbuilds Delta-Six, designed by Sage Delta_name = "Delta-Six by Sage"; // Geodave 810, October, 2015 - adaptation and mods by PRZ noted by !! // See http://www.openbuilds.com/builds/delta-six.476 for files // See also http://www.zewind.com/data_Delta-Six.scad //!! for faster simulation, the below rebuilt of the Vertexes could have been replaced by STL includes. //!! In the same way as frame replace, defining $bEffector as true allow to include/build the effector with buildEffector(); and $bCar set true allow carriage/build include with buildCar();
$bAllFrame = true; // replace frame by following routine - no need to modify the simulator program module buildAllFrame() { DrawFinal();} //run by the simulator in 'simul' module *DrawFinal(); // use for development only
//*** -- beam_int_radius = frame_rad - 10; //Main routine complains if not a constant //beam_int_radius=193.204; //for 300mm length horizontals //beam_int_radius=308.674; //for 500mm length horizontals beam_int_radius=236.506; //for 375mm length horizontals //beam_int_radius = 308.674; //echo("beam_int_radius = ",beam_int_radius);
//beam_int_radius = 187.3; // radius inside the columns - used as reference radius //beam_int_radius=236.38; //for 375mm length horizontals //beam_int_radius=308.67; //for 500mm length horizontals //beam_int_radius =20; hbase= 46; // height of the base structure !! htop = 40; // height of top structure !! htotal= 800; //!! total height, including base and top structure. This variable shall be used by the below program to have true vertical travels housing_base=0; bed_level = 10; // !!
extrusion = 0; //!! Neutralise original extrusion drawing $bedDia=1; //!! neutralise original bed
car_hor_offset= 15; //!! from Scad files for Traxxas links - Offset for mag links is higher hcar = 86; car_vert_dist = 25; top_clearance=15; // clearance between top of the carriage and top structure
eff_hor_offset= 37; //!! as defined in SCAD file eff_vert_dist = 4; arm_space= 55; //!! space between the arms, as defined in configuration file //delta_angle = 60; arm_length = 340; // supersedes delta_angle mini_angle = 20; // !! Not defined in original description, but comply with bed size as shown hotend_vert_dist = 12; dia_ball= 8; dia_arm = 6; railthk =0; railwidth =0; rail_base=0; frame_corner_radius=100; frame_face_radius= 0; corner_offset=-65;
belt_dist=0; spool_diam = 0; spool_thk = 0;
//$vpt=[-96.47,108.38,198.51];
//$vpr =[55,0,25];
$vpd=camPos?2900:$vpd; //!! camera distance: work only if set outside a module
$vpr=camPos?[80,0,42]:$vpr; //!! camera rotation
$vpt=camPos?[152,-90,530]:$vpt; //!! camera translation
//frame_color = [0.7,0.25,0.7,0.98];
//plate_color = [0.7,0.7,1.0,0.5];
//rod_color=[0.1,0.1,0.1,0.88];
//v_slot_color="silver";
//include
//****These 14 variables are for 1x 2020 Bottom, Top Horizontal & Vertical extrusions //Alum_BaseHorWid = 20; //Size of Extrusions to use for Base //Alum_BaseHor_Z = 10; //10 for 2020, 30 for 2040, 50 for 2060 & 70 for 2080 //Alum_BaseGap = 0; //Gap between extrusions //Alum_BaseQty = 1; //How many Extrusions on Base //Alum_TopHorWid = 20; //Top Size of Extrusions to use for Top //Alum_TopHor_Z = 10; //10 for 2020, 30 for 2040, 50 for 2060 & 70 for 2080 //Alum_TopGap = 0; //Gap between extrusions //Alum_TopQty = 1; //How many Extrusions on Base //Printer_Xadd = 44.34; //2020 Vertical For Calculating X overall dimension of Printer //Alum_VertWid = 20; //use 20, 40, 60 or 80 for Vertical Extrusions //Alum_VertGap = 0; //Gap between Top extrusions (only used when Alum_TopQty = 2) //Alum_VertQty = 1; //How many vertical Extrusions at each Vertex //Vertex_X_offset = 20.98; //X Offset from end of 2020 Alum. Horizontal to Center of Vertical //Vertex_Y_offset = 16.34; //Y Offset from end of 2020 Alum. Horizontal to Center of Vertical
//****These 14 variables are for 2x 2020 Bottom, Top Horizontal & 2x Vertical extrusions //Alum_BaseHorWid = 20; //Size of Extrusions to use for Base //Alum_BaseHor_Z = 10; //10 for 2020, 30 for 2040, 50 for 2060 & 70 for 2080 //Alum_BaseGap = 20; //Gap between Bottom extrusions (only used when Alum_BaseQty = 2) //Alum_BaseQty = 2; //How many Extrusions on Base //Alum_TopHorWid = 20; //Top Size of Extrusions to use for Top //Alum_TopHor_Z = 10; //10 for 2020, 30 for 2040, 50 for 2060 & 70 for 2080 //Alum_TopGap = 20; //Gap between Top extrusions (only used when Alum_VertQty = 2) //Alum_TopQty = 1; //How many Extrusions at Top //Printer_Xadd = 44.34; //2020 Vertical For Calculating X overall dimension of Printer //Alum_VertWid = 20; //use 20, 40, 60 or 80 for Vertical Extrusions //Alum_VertGap = 20; //Gap between Top extrusions (only used when Alum_TopQty = 2) //Alum_VertQty = 2; //How many vertical Extrusions at each Vertex //Vertex_X_offset = 20.98; //X Offset from end of 2060 Alum. Horizontal to Center of Vertical //Vertex_Y_offset = 16.34; //Y Offset from end of 2060 Alum. Horizontal to Center of Vertical
//****These 14 variables are for 1x 2040 Bottom, Top Horizontal & Vertical extrusionsf Alum_BaseHorWid = 40; //Size of Extrusions to use for Base Alum_BaseHor_Z = 30; //10 for 2020, 30 for 2040, 50 for 2060 & 70 for 2080 Alum_BaseGap = 0; //Gap between extrusions Alum_BaseQty = 1; //How many Extrusions on Base Alum_TopHorWid = 40; //Size of Extrusions to use for Top Alum_TopHor_Z = 30; //10 for 2020, 30 for 2040, 50 for 2060 & 70 for 2080 Alum_TopGap = 0; //Gap between extrusions Alum_TopQty = 1; //How many Extrusions at Top Printer_Xadd = 54.34; //2040 Vertical For Calculating X overall dimension of Printer Alum_VertWid = 40; //use 20, 40, 60 or 80 for Vertical Extrusions Alum_VertGap = 0; //Gap between Top extrusions (only used when Alum_TopQty = 2) Alum_VertQty = 1; //How many vertical Extrusions at each Vertex Vertex_X_offset = 25.98; //X Offset from end of 2040 Alum. Horizontal to Center of Vertical Vertex_Y_offset = 25.0; //Y Offset from end of 2040 Alum. Horizontal to Center of Vertical
//****These 14 variables are for 1x 2060 Bottom, Top Horizontal & Vertical extrusions //Alum_BaseHorWid = 60; //Size of Extrusions to use for Base //Alum_BaseHor_Z = 50; //10 for 2020, 30 for 2040, 50 for 2060 & 70 for 2080 //Alum_BaseGap = 0; //Gap between extrusions //Alum_BaseQty = 1; //How many Extrusions on Base //Alum_TopHorWid = 60; //Size of Extrusions to use for Top //Alum_TopHor_Z = 50; //10 for 2020, 30 for 2040, 50 for 2060 & 70 for 2080 //Alum_TopGap = 0; //Gap between extrusions //Alum_TopQty = 1; //How many Extrusions at Top //Printer_Xadd = 64.4; //2060 Vertical For Calculating X overall dimension of Printer //Alum_VertWid = 60; //use 40, 60 or 80 for Vertical Extrusions //Alum_VertGap = 0; //Gap between Top extrusions (only used when Alum_TopQty = 2) //Alum_VertQty = 1; //How many vertical Extrusions at each Vertex //Vertex_X_offset = 31.01; //X Offset from end of 2060 Alum. Horizontal to Center of Vertical //Vertex_Y_offset = 33.71; //Y Offset from end of 2060 Alum. Horizontal to Center of Vertical
//****These 14 variables are for 1x 2080 Bottom, Top Horizontal & Vertical extrusions //Alum_BaseHorWid = 80; //Size of Extrusions to use for Base //Alum_BaseHor_Z = 70; //10 for 2020, 30 for 2040, 50 for 2060 & 70 for 2080 //Alum_BaseGap = 0; //Gap between extrusions //Alum_BaseQty = 1; //How many Extrusions on Base //Alum_TopHorWid = 80; //Size of Extrusions to use for Top //Alum_TopHor_Z = 70; //10 for 2020, 30 for 2040, 50 for 2060 & 70 for 2080 //Alum_TopGap = 0; //Gap between extrusions //Alum_TopQty = 1; //How many Extrusions at Top //Printer_Xadd = 74.4; //2080 Vertical For Calculating X overall dimension of Printer //Alum_VertWid = 80; //use 40, 60 or 60 for Vertical Extrusions //Alum_VertGap = 0; //Gap between Top extrusions (only used when Alum_TopQty = 2) //Alum_VertQty = 1; //How many vertical Extrusions at each Vertex //Vertex_X_offset = 36.01; //X Offset from end of Alum. Horizontal to Center of Vertical //Vertex_Y_offset = 42.37; //Y Offset from end of Alum. Horizontal to Center of Vertical
//This seems to be center of vertical to corner of where horizontals meet, (not sure I need this) //vertex_offset = 50.22; //For 2020 size Vertical //This seems to be center of vertical to corner of where horizontals meet, (not sure I need this) //vertex_offset = 50; //For 2040 size Vertical //This seems to be center of vertical to corner of where horizontals meet, (not sure I need this) //vertex_offset = 67.43; //For 2060 size Vertical (2x 2020 with 20mm gap) //This seems to be center of vertical to corner of where horizontals meet, (not sure it is needed) //vertex_offset = 67.43; //For 2060 size Vertical //This seems to be center of vertical to corner of where horizontals meet, (not sure I need this) //vertex_offset = 84.75; //For 2080 size Vertical Glass_Z_Offset = 4; //Offset of Glass above Frame Glass_Thk = 3; //Glass Thickness //======================================================== M5 = 5.5; //Hole Diameter HoleRes = 24; //Resolution of small Holes sin60 = 0.866025; cos60 = 0.5;
explode = 0.0; // set > 0.0 to push the parts apart (***Not implemented yet)
//These 2 variables are the same for any of the 2020, 2040, 2060 or 2080 extrusions //Car_OriginOffset_Y = 12; //Origin Offset of Carriages from Centerline of Vertical Extrusion //CarHorOff = 24; //Offset from Center line of Vertical Aluminums to Centerline of carriage arm connector //CarVerOff = 76.36 + (Frame_Top_Ht - 40); //Offset from Top of Frame to Centerline of carriage arm connector //echo("CarVerOff = ", CarVerOff); //Ef_Off = 37; //horizontal distance from center to pivot
//Eff_Half = Eff_Ht / 2;
//Calculate total Width of Verticals so we know which vertex to use Alum_VertTopWid = Alum_VertWid * Alum_VertQty + Alum_VertGap; //echo("Alum_VertTopWid = ", Alum_VertTopWid); //distance from center to center of Vertical extrusion & also origin of Vertex Plastic Part //This is the Delta Radius frame_rad = ((Frame_Ext_Len / 2) + Vertex_X_offset) / sin60; echo("frame_rad = ",frame_rad);
//15.23 is distance from Centerline of Vertical extrusion to outside edge of Plastic Vertex //Printer_Y = (frame_rad * 2) + (15.23 * 2); //Printer_X = (Printer_Xadd * 2) + Frame_Ext_Len; //Overall X Dimension of Printer //Print_Radius = frame_rad - (Frame_Ext_Wid / 2); //Arm_HorDist = frame_rad - EfOff - CarHorOff; //echo("**Arm_HorDist = ",Arm_HorDist); //Arm_Len = Arm_HorDist / sin(Delta_Ang_1st); //Arm length based on Delta_Ang_1st //echo("Arm_Len = ",Arm_Len); //Display calculated length based on orginal Delta_Angle //I had to use a temporary variable for Angle initially, since openscad does not seem to like me //redefining that variable after it was used //This allows user to change either the angle or the length of the arms //========================================= //=== Change Arm Length Variable Here ===== //========================================= //DELTA_DIAGONAL_ROD = Arm_Len; //Change this to what length you want //DELTA_DIAGONAL_ROD = 288; //DELTA_DIAGONAL_ROD = 250; //echo("DELTA_DIAGONAL_ROD = ",DELTA_DIAGONAL_ROD); //Re calculate Delta Angle & Vertical distance in case Arm Length was changed //Delta_Ang = asin(Arm_HorDist / DELTA_DIAGONAL_ROD); //echo("Delta_Ang = ",Delta_Ang); //echo("6x Horizontal Extrusions = ",Frame_Ext_Len,"mm"); //echo("3x Vertical Extrusions = ",Frame_Ext_Ht,"mm"); //Arm_VerDist = Arm_HorDist / tan(Delta_Ang); //RotRod = -Delta_Ang; //RotRod_Y = RotRod; //RotRod_X = RotRod; //RotRod_Z = RotRod; // //Rod_X = 30.5; //X offset of diagonal Arms //Rod_Y = 37; //Y offset from Center of effector //Eff_Top_Offset = Frame_Ext_Ht - (Arm_VerDist + CarVerOff + Eff_Half); //Hot_End_Z = (Eff_Top_Offset + Eff_Ht) - HotEnd_Ht; //echo("Frame_Ext_Ht",Frame_Ext_Ht); //echo("Arm_VerDist",Arm_VerDist); //echo("CarVerOff",CarVerOff); //echo("Eff_Half",Eff_Half); //echo("Eff_Top_Offset",Eff_TopOffset); //Eff_Top_Offset is off
//echo("=========Hot_End_Z = ",Hot_End_Z); //echo("Frame_Ext_Ht = ",Frame_Ext_Ht); //echo("Arm_VerDist = ",Arm_VerDist); //echo("CarVerOff = ",CarVerOff); //echo("Eff_Half = ",Eff_Half); //echo("Eff_Top_Offset = ",Eff_Top_Offset); //echo("asin(.511) = ",asin(0.5115816007)); //echo("*****"); Glass_Ht = Frame_Motor_Ht + Alum_BaseThk + Glass_Z_Offset; //endstop_Ht = 55; //Height of extrusion should be this number //carriage_length = 50.7/2; //half Length of Carriage along the Z axis //calc_carriage_Ht = Frame_Ext_Ht - (Frame_Top_Ht - 40) - carriage_length - endstop_Ht; //echo("calc_carriage_Ht = ",calc_carriage_Ht); //calc_carriage_Ht = 668.65 - 339.7; //Original Height - build Height //calc_carriage_Z = calc_carriage_Ht; //calc_carriage_X = calc_carriage_Ht; //calc_carriage_Y = calc_carriage_Ht; // //Calc_Endstop_z = Frame_Ext_Ht - endstop_Ht;
Frame_half = Frame_Ext_Len / 2; echo("Frame_half = ", Frame_half); Len=Frame_half+Vertex_X_offset; //echo("Len = ",Len);
frame_top = Frame_Ext_Ht - 20 + explode;
Len=Frame_half+Vertex_X_offset; frame_r1 = Len / sin60; //Distance from Center to Center of Vertical Extrusions //echo("frame_r1 = ",frame_r1); Y_Vertex = frame_r1 / 2; //Y offset from center to insert Vertices //echo("Y_Vertex = ",Y_Vertex); Alum_Y = Y_Vertex + Vertex_Y_offset; //Y offset from center to insert horizontal extrusions echo("Alum_Y = ",Alum_Y); BedRad = Alum_Y - 10; echo("BedRad =",BedRad); frame_color = [0.7,0.25,0.7,0.98]; plate_color = [0.7,0.7,1.0,0.5]; rod_color=[0.1,0.1,0.1,0.88]; v_slot_color="silver";
module DrawHorizontalAlumFrame() { V_Slot_H(); rotate([0,0,120]) V_Slot_H(); rotate([0,0,-120]) V_Slot_H(); } module DrawHorBaseAlumFrame() { V_Slot_H(Alum_BaseHorWid,Alum_BaseHor_Z + Alum_BaseThk); rotate([0,0,120]) V_Slot_H(Alum_BaseHorWid,Alum_BaseHor_Z + Alum_BaseThk); rotate([0,0,-120]) V_Slot_H(Alum_BaseHorWid,Alum_BaseHor_Z + Alum_BaseThk); } module DrawHorTopAlumFrame() { V_Slot_H(Alum_TopHorWid,Alum_TopHor_Z); rotate([0,0,120]) V_Slot_H(Alum_TopHorWid,Alum_TopHor_Z); rotate([0,0,-120]) V_Slot_H(Alum_TopHorWid,Alum_TopHor_Z); } module V_Slot_H(Htype = Alum_BaseHorWid,Z_Ht = Alum_BaseHor_Z) { if (Htype == 20) { translate([-Frame_half,-Alum_Y,Z_Ht]) rotate([0,90,0]) V_Slot_20x20(Frame_Ext_Len); } if (Htype == 40) { translate([-Frame_half,-Alum_Y,Z_Ht]) rotate([0,90,0]) V_Slot_20x40(Frame_Ext_Len); } if (Htype == 60) { translate([-Frame_half,-Alum_Y,Z_Ht]) rotate([0,90,0]) V_Slot_20x60(Frame_Ext_Len); } if (Htype == 80) { translate([-Frame_half,-Alum_Y,Z_Ht]) rotate([0,90,0]) V_Slot_20x80(Frame_Ext_Len); } } module Vertex_Motor() { if (Alum_VertTopWid == 20) { Vertex2020_Motor(Frame_Motor_Ht); //Draw 1st, 2nd and 3rd bottom Vertex } if (Alum_VertTopWid == 40) { Vertex2040_Motor(Frame_Motor_Ht); //Draw 1st, 2nd and 3rd bottom Vertex } if (Alum_VertTopWid == 60) { Vertex2060_Motor(Frame_Motor_Ht); //Draw 1st, 2nd, and 3rd bottom Vertex } if (Alum_VertTopWid == 80) { Vertex2080_Motor(Frame_Motor_Ht); //Draw 1st, 2nd, and 3rd bottom Vertex } } module VertexTop(Ht_V=Frame_Top_Ht) { if (Alum_VertTopWid == 20) { Vtex2020(Ht_V); //Draw 1st, 2nd and 3rd bottom Vertex } if (Alum_VertTopWid == 40) { Vtex2040(Ht_V); //Draw 1st, 2nd and 3rd bottom Vertex } if (Alum_VertTopWid == 60) { Vtex2060(Ht_V); //Draw 1st, 2nd, and 3rd bottom Vertex } if (Alum_VertTopWid == 80) { Vtex2080(Ht_V); //Draw 1st, 2nd, and 3rd bottom Vertex } }
//Vertex2040_Motor(Frame_Motor_Ht + Alum_BaseThk); module Vertex2040_Motor(Ht_V=Frame_Motor_Ht) { if (Alum_BaseThk == 0) { Vtex2040(Ht_V); } else { difference() { union() { Vtex2040(Ht_V); translate([0,0,-Alum_BaseThk]) linear_extrude(height = Alum_BaseThk, center = false, convexity = 10)polygon(points = [[-33.33,-12.73],[-33.05,-13.17],[-32.72,-13.58],[-32.35,-13.95],[-31.94,-14.27], [-31.5,-14.56],[-31.03,-14.8],[-30.55,-14.98],[-30.04,-15.12],[-29.52,-15.2], [-29,-15.23],[29,-15.23],[29.52,-15.2],[30.04,-15.12],[30.55,-14.98], [31.03,-14.8],[31.5,-14.56],[31.94,-14.27],[32.35,-13.95],[32.72,-13.58], [33.05,-13.17],[33.33,-12.73],[77.94,65],[54.85,65],[49.07,65], [40.99,51],[40.71,50.56],[40.38,50.15],[40.01,49.78],[39.6,49.45], [39.16,49.17],[38.7,48.93],[38.21,48.74],[37.7,48.61],[37.18,48.53], [36.66,48.5],[-36.66,48.5],[-37.18,48.53],[-37.7,48.61],[-38.21,48.74], [-38.7,48.93],[-39.16,49.17],[-39.6,49.45],[-40.01,49.78],[-40.38,50.15], [-40.71,50.56],[-40.99,51],[-49.07,65],[-77.94,65],[-33.05,-13.17]]); } Vtex2040Cuts(); //Make the internal cuts } } } module Vtex2040Cuts() { //Vertical Extrusion opening translate([0,0,-50]) linear_extrude(height = 100, center = false, convexity = 10)polygon(points = [[-20.13,-10.13],[-14.5,-10.13],[-12.7,-8.32],[-7.3,-8.32],[-5.5,-10.13], [5.5,-10.13],[7.3,-8.32],[12.7,-8.32],[14.5,-10.13],[20.13,-10.13], [20.13,10.13],[-20.13,10.13]]); //Big Opening translate([0,0,-50]) linear_extrude(height = 100, center = false, convexity = 10)polygon(points = [[-21.65,17.5],[-21.37,17.06],[-21.04,16.65],[-20.67,16.28],[-20.26,15.95], [-19.82,15.67],[-19.35,15.43],[-18.87,15.24],[-18.36,15.11],[-17.84,15.03], [-17.32,15],[-15.5,15],[-15.5,13.5],[15.5,13.5],[15.5,15], [17.32,15],[17.84,15.03],[18.36,15.11],[18.87,15.24],[19.35,15.43], [19.82,15.67],[20.26,15.95],[20.67,16.28],[21.04,16.65],[21.37,17.06], [21.65,17.5],[30.89,33.5],[31.13,33.97],[31.31,34.45],[31.45,34.96], [31.53,35.48],[31.56,36],[31.53,36.52],[31.45,37.04],[31.31,37.55], [31.13,38.03],[30.89,38.5],[30.6,38.94],[30.27,39.35],[29.9,39.72], [29.5,40.05],[29.06,40.33],[28.59,40.57],[28.1,40.76],[27.6,40.89], [27.08,40.97],[26.56,41],[-26.56,41],[-27.08,40.97],[-27.6,40.89], [-28.1,40.76],[-28.59,40.57],[-29.06,40.33],[-29.5,40.05],[-29.9,39.72], [-30.27,39.35],[-30.6,38.94],[-30.89,38.5],[-31.13,38.03],[-31.31,37.55], [-31.45,37.04],[-31.53,36.52],[-31.56,36],[-31.53,35.48],[-31.45,34.96], [-31.31,34.45],[-31.13,33.97],[-30.89,33.5]]); } module Vtex2040(Ht_V=Frame_Motor_Ht) { //This was traced from the profile of vertex_20x40.stl difference() { linear_extrude(height = Ht_V, center = false, convexity = 10)polygon(points = [[-43.3,5],[-43.3,4.54],[-33.33,-12.73],[-33.05,-13.17],[-32.72,-13.58], [-32.35,-13.95],[-31.94,-14.27],[-31.5,-14.56],[-31.03,-14.8],[-30.55,-14.98], [-30.04,-15.12],[-29.52,-15.2],[-29,-15.23],[29,-15.23],[29.52,-15.2], [30.04,-15.12],[30.55,-14.98],[31.03,-14.8],[31.5,-14.56],[31.94,-14.27], [32.35,-13.95],[32.72,-13.58],[33.05,-13.17],[33.33,-12.73],[43.3,4.54], [43.3,5],[25.98,15],[54.85,65],[49.07,65],[40.99,51], [40.71,50.56],[40.38,50.15],[40.01,49.78],[39.6,49.45],[39.16,49.17], [38.7,48.93],[38.21,48.74],[37.7,48.61],[37.18,48.53],[36.66,48.5], [-36.66,48.5],[-37.18,48.53],[-37.7,48.61],[-38.21,48.74],[-38.7,48.93], [-39.16,49.17],[-39.6,49.45],[-40.01,49.78],[-40.38,50.15],[-40.71,50.56], [-40.99,51],[-49.07,65],[-54.85,65],[-25.98,15]]); Vtex2040Cuts(); //Make the internal cuts } } module V_Slot_20x20(Ht_A=Frame_Ext_Len) { color(v_slot_color) rotate([0,0,-90]) difference() { linear_extrude(height = Ht_A, center = false, convexity = 10)polygon(points = [[-10,-8.5],[-8.5,-10],[-4.64,-10], [-2.84,-8.2],[-5.5,-8.2],[-5.5,-6.56], [-2.84,-3.9],[2.84,-3.9],[5.5,-6.56], [5.5,-8.2],[2.84,-8.2],[4.64,-10], [8.5,-10],[10,-8.5],[10,-4.64], [8.2,-2.84],[8.2,-5.5],[6.56,-5.5], [3.9,-2.84],[3.9,2.84],[6.56,5.5], [8.2,5.5],[8.2,2.84],[10,4.64], [10,8.5],[8.5,10],[4.64,10], [2.84,8.2],[5.5,8.2],[5.5,6.56], [2.84,3.9],[-2.84,3.9],[-5.5,6.56], [-5.5,8.2],[-2.84,8.2],[-4.64,10], [-8.5,10],[-10,8.5],[-10,4.64], [-8.2,2.84],[-8.2,5.5],[-6.56,5.5], [-3.9,2.84],[-3.9,-2.84],[-6.56,-5.5], [-8.2,-5.5],[-8.2,-2.84],[-10,-4.64]]); translate([0,0,-1]) cylinder(d=M5,h=Ht_A+2,$fn=HoleRes); } } module V_Slot_Vert() { if (Alum_VertTopWid == 20) { translate([10,0,0]) //Move additional 10mm to left for 2060 size V_Slot_20x20(Frame_Ext_Ht); //Draw 1st Vertical Extrusion } if (Alum_VertTopWid == 40) { V_Slot_20x40(Frame_Ext_Ht); //Draw 1st Vertical Extrusion } if (Alum_VertTopWid == 60) { if (Alum_VertWid == 60) { translate([-10,0,0]) //Move additional 10mm to left for 2060 size V_Slot_20x60(Frame_Ext_Ht); //Draw 1st Vertical Extrusion } if (Alum_VertWid == 20) { translate([-10,0,0]) //Move additional 10mm to left for 2060 size V_Slot_20x20(Frame_Ext_Ht); //Draw 1st Vertical Extrusion translate([30,0,0]) //Move additional 10mm to left for 2060 size V_Slot_20x20(Frame_Ext_Ht); //Draw 1st Vertical Extrusion } } if (Alum_VertTopWid == 80) { translate([-20,0,0]) //Move additional 10mm to left for 2060 size V_Slot_20x80(Frame_Ext_Ht); //Draw 1st Vertical Extrusion } } module V_Slot_20x40(Ht_A=Frame_Ext_Len) { //This was traced from the V-Slot 20x40 & taking out the small details color(v_slot_color) rotate([0,0,-90]) difference() { linear_extrude(height = Ht_A, center = false, convexity = 10)polygon(points = [[-3.9,22.84],[-3.9,17.16],[-6.56,14.5],[-8.2,14.5],[-8.2,17.16], [-10,15.36],[-10,4.64],[-8.2,2.84],[-8.2,5.5],[-6.56,5.5], [-3.9,2.84],[-3.9,-2.84],[-6.56,-5.5],[-8.2,-5.5],[-8.2,-2.84], [-10,-4.64],[-10,-8.5],[-8.5,-10],[-4.64,-10],[-2.84,-8.2], [-5.5,-8.2],[-5.5,-6.56],[-2.84,-3.9],[2.84,-3.9],[5.5,-6.56], [5.5,-8.2],[2.84,-8.2],[4.64,-10],[8.5,-10],[10,-8.5], [10,-4.64],[8.2,-2.84],[8.2,-5.5],[6.56,-5.5],[3.9,-2.84], [3.9,2.84],[6.56,5.5],[8.2,5.5],[8.2,2.84],[10,4.64], [10,15.36],[8.2,17.16],[8.2,14.5],[6.56,14.5],[3.9,17.16], [3.9,22.84],[6.56,25.5],[8.2,25.5],[8.2,22.84],[10,24.64], [10,28.5],[8.5,30],[4.64,30],[2.84,28.2],[5.5,28.2], [5.5,26.56],[2.84,23.9],[-2.84,23.9],[-5.5,26.56],[-5.5,28.2], [-2.84,28.2],[-4.64,30],[-8.5,30],[-10,28.5],[-10,24.64], [-8.2,22.84],[-8.2,25.5],[-6.56,25.5]]); //Cut opening between 20x20's translate([0,0,-1]) linear_extrude(height = Ht_A+2, center = false, convexity = 10)polygon(points = [[-8.2,7.3],[-6.24,7.3],[-2.84,3.9],[2.84,3.9],[6.24,7.3], [8.2,7.3],[8.2,12.7],[6.24,12.7],[2.84,16.1],[-2.84,16.1], [-6.24,12.7],[-8.2,12.7]]); translate([0,0,-1]) cylinder(d=M5,h=Ht_A+2,$fn=HoleRes); //Drill M5 holes translate([0,20,-1]) cylinder(d=M5,h=Ht_A+2,$fn=HoleRes); } } module GlassTab() { difference() { union() { cylinder(d=25.4,h=3.6,$fn=80); translate([-12.7,12.7,0]) cube([25.4,28.2,3.6]); } translate([0,0,-1]) cylinder(d=3.45,h=5.6,$fn=HoleRes); } } module SpiralBedClamp() { rotate([0,0,180]) translate([0,0,7.5]) rotate([180,0,0]) difference() { union() { linear_extrude(height = 4, center = false, convexity = 10)polygon(points = [[-2.1,-4.16],[-2.1,-10.34],[-2.01,-10.77],[-1.74,-11.12],[-1.35,-11.31], [-0.91,-11.33],[1.24,-10.72],[3.24,-9.77],[5.02,-8.5],[6.56,-6.96], [7.78,-5.2],[8.67,-3.26],[9.2,-1.23],[9.35,0.44],[9.34,1.28], [9.04,3.31],[8.54,4.86],[7.61,6.65],[6.38,8.22],[4.83,9.55], [3.14,10.51],[1.32,11.11],[-0.93,11.34],[-2.62,11.16],[-4.37,10.61], [-5.94,9.72],[-7.27,8.55],[-8.31,7.15],[-9,5.58],[-9.33,3.94], [-9.28,2.29],[-8.87,0.77],[-8.13,-0.62],[-7.1,-1.76],[-5.88,-2.58], [-4.51,-3.06],[-3.15,-3.17],[-2.72,-3.24],[-2.36,-3.49],[-2.2,-3.74]]); translate([0,0,4]) linear_extrude(height = 3.5, center = false, convexity = 10)polygon(points = [[-2.1,-2.64],[-2.1,-7.27],[-2.01,-7.68],[-1.77,-8.02],[-1.41,-8.22], [-0.99,-8.26],[0.44,-7.81],[2.03,-6.99],[3.1,-6.2],[4.04,-5.28], [4.95,-4.08],[5.57,-2.94],[6.01,-1.76],[6.2,-0.94],[6.32,-0.11], [6.34,0.51],[6.31,1.54],[6.09,2.74],[5.7,3.89],[5.09,5.02], [4.32,6.03],[3.54,6.77],[2.46,7.5],[1.17,8.05],[0.11,8.29], [-1.16,8.33],[-2.36,8.14],[-3.48,7.71],[-4.34,7.18],[-5.07,6.52], [-5.73,5.62],[-6.12,4.74],[-6.33,3.73],[-6.32,2.86],[-6.14,2.03], [-5.99,1.65],[-5.78,1.27],[-5.72,1],[-5.53,0.49],[-5.13,-0.22], [-4.58,-0.82],[-3.91,-1.29],[-3.16,-1.6],[-2.76,-1.7],[-2.52,-1.83], [-2.32,-2.02],[-2.18,-2.25],[-2.1,-2.64]]); } translate([-2.14,1.98,-1]) cylinder(d=6,h=5,$fn=HoleRes); translate([-2.14,1.98,3]) cylinder(d=3.5,h=6,$fn=HoleRes); } } module GlassTabs() { color(frame_color) { translate([0,-Alum_Y,Frame_Motor_Ht + Alum_BaseThk]) GlassTab(); translate([0,-Alum_Y,Frame_Motor_Ht + Alum_BaseThk + 3.6]) SpiralBedClamp(); } } //====================================================================== //=== This is where Vertices & Aluminum of the Delta is put together === //====================================================================== module DrawFrame() { //Draw Bottom Vertex corners color(frame_color) { for (z = [-120:120:120]) { rotate([0,0,z]) translate([0,frame_rad,Alum_BaseThk]) rotate([0,0,180]) Vertex_Motor(Frame_Motor_Ht); } //Draw Top Vertex corners for (z = [-120:120:120]) { rotate([0,0,z]) translate([0,frame_rad,Frame_Ext_Ht-Frame_Top_Ht]) rotate([0,0,180]) VertexTop(Frame_Top_Ht); //Draw 1,2,3 top Vertex } } //Draw the Bottom Horizontal Aluminum Extrusion(s) DrawHorBaseAlumFrame(); if (Alum_BaseQty == 2) { translate([0,0,Alum_BaseHorWid + Alum_BaseGap]) DrawHorBaseAlumFrame(); } //Draw the Top Horizontal Aluminum Extrusion(s) translate([0,0,Frame_Ext_Ht - Alum_TopHorWid]) DrawHorTopAlumFrame(); //Draw Top Aluminum Frame if (Alum_TopQty == 2) { translate([0,0,Frame_Ext_Ht - Alum_TopHorWid - Alum_TopHorWid - Alum_TopGap]) DrawHorTopAlumFrame(); //Draw Top Aluminum Frame }
//Draw Vertical Aluminum extrusions translate([-Len,-Y_Vertex,0]) rotate([0,0,-60]) translate([-10,0,0]) V_Slot_Vert(); //V_Slot_20x40(Frame_Ext_Ht); //Draw 1st Vertical Extrusion
translate([Len,-Y_Vertex,0]) rotate([0,0,60]) translate([-10,0,0]) V_Slot_Vert(); //V_Slot_20x40(Frame_Ext_Ht); //Draw 2nd Vertical Extrusion
translate([0,frame_rad,0]) rotate([0,0,0]) translate([-10,0,0]) V_Slot_Vert(); //V_Slot_20x40(Frame_Ext_Ht); //Draw 3rd Vertical Extrusion } module DrawFinal() { DrawFrame(); //Draw Alum. Extusions & 6 Vertices
GlassTabs(); rotate([0,0,120]) GlassTabs(); rotate([0,0,-120]) GlassTabs(); //Draw Glass Build Plate translate([0,0,Glass_Ht]) color(plate_color) cylinder(r=BedRad+5,h=Glass_Thk); //Draw Build plate cylinder } //module frame() //{ // //Dummy routine to bypass main routine //}
— Reply to this email directly or view it on GitHub https://github.com/PRouzeau/OpenSCAD-Delta-Simulator/issues/1#issuecomment-147673284 . https://github.com/notifications/beacon/AMdsoDxeyNmKTXDr_wOi0gTj0tn9GDi4ks5o7NHygaJpZM4GNe2h.gif
Ok, its published. I added a file to explain how to personalize a delta, as this was not clearly documented. This personalization was not on first simulator issues and I added it in June to allow designing my own delta (the D-Box, not yet published, but I sent some preliminary photos on RepRap forum). In fact the math of the kinematic was not that hard, much easier than I thought when I started. I've done much more trigonometry for parametric design of own deltas design.
Regards, Pierre
Le 13/10/2015 14:01, David a écrit :
Cool, looks like it works well now. You did a great job on making this modular & figuring out the kinetic movements. Here are a few comments for you on the changes.
- The reason I did not use imported .stl files was I was able to render (F6) in the calculator program & be able to export a final design .stl file. If I used the .stl files imported, openscad would not generate that file. This allows me to double check dimensions of the model in a CAD program. Having only one file associated with this dataset also makes for less files to keep track of.
- You can remove the commented out //module frame() section at the very bottom since it is not needed
- You can remove the 3 code lines //V-Slot_20x40(Frame_Ext_Ht); near the bottom.
- I saw the indentation within the code was lost when pasted in this email. Will the indentation be there on the published version?
- I could add a carriage to this that I drew for the calculator, but not sure it would add much to the simulation.
- You can take out this comment line as I will probably delete that file from there once it is your github, // See also http://www.zewind.com/data_Delta-Six.scad
Thanks for quick response,
David
From: PRouzeau [mailto:notifications@github.com] Sent: Tuesday, October 13, 2015 6:18 AM To: PRouzeau/OpenSCAD-Delta-Simulator Cc: David Subject: Re: [OpenSCAD-Delta-Simulator] Added a new data set for a V-Slot Delta-Six design (#1)
Hello, I have done modifications to your data file (attached), that I noted with '!!' :
- For integration without main simulation modification while defining $bAllFrame = true; which runs module buildAllFrame() instead of original frame definition
- Replace my signature by yours ...
- Added name of designer (Sage) in title and removed host name
- Given host address in data and other link
- Removed comments for Rostock, which don't apply here
- Corrected data according Sage OpenScad files (Effector Offset, arm space, carriage offset)
- Taken into account 'htotal' to have accurate height simulation and travel
- Modified bed position to have the hotend touching the bed
- Given appropriate camera distance
Did you have any comments/complements before publication ?
Regards, Pierre
Le 13/10/2015 01:03, David a écrit :
I really like your delta simulator & created a data set for a delta design I am thinking about building. I ran into a couple of limitations of openscad that I had to get around. In your Delta_simulator.scad, I added the new data set on line 108 as shown in next paragraph & had to comment out line 211 so the data_Delta-Six.scad file would draw the frame. I included a link to the data file and an animation .gif below. I also had to define: beam_int_radius = 236.506; rather than using a formula: beam_int_radius = frame_rad - 10;
Line 108 added: include //V-Slot Openbuilds Delta-Six by Sage Line 211 commented out Frame(); so the data_Delta-Six routine could draw its version of the frame.
http://www.zewind.com/data_Delta-Six.scad heep://www.zewind.com/V-Slot_DeltaAnimation.gif
Here is the link the build log the author & others have on this design: http://www.openbuilds.com/builds/delta-six.476/
Thanks for a cool openSCAD program,
David
— Reply to this email directly or view it on GitHub https://github.com/PRouzeau/OpenSCAD-Delta-Simulator/issues/1.
Pierre Rouzeau - Proud indigenous of old Europe
www.rouzeau.net http://www.rouzeau.net
L'absence de virus dans ce courrier électronique a été vérifiée par le logiciel antivirus Avast. https://www.avast.com/antivirus
// Data Set for Openbuilds Delta-Six, designed by Sage Delta_name = "Delta-Six by Sage"; // Geodave 810, October, 2015 - adaptation and mods by PRZ noted by !! // See http://www.openbuilds.com/builds/delta-six.476 for files // See also http://www.zewind.com/data_Delta-Six.scad //!! for faster simulation, the below rebuilt of the Vertexes could have been replaced by STL includes. //!! In the same way as frame replace, defining $bEffector as true allow to include/build the effector with buildEffector(); and $bCar set true allow carriage/build include with buildCar();
$bAllFrame = true; // replace frame by following routine - no need to modify the simulator program module buildAllFrame() { DrawFinal();} //run by the simulator in 'simul' module *DrawFinal(); // use for development only
//*** -- beam_int_radius = frame_rad - 10; //Main routine complains if not a constant //beam_int_radius=193.204; //for 300mm length horizontals //beam_int_radius=308.674; //for 500mm length horizontals beam_int_radius=236.506; //for 375mm length horizontals //beam_int_radius = 308.674; //echo("beam_int_radius = ",beam_int_radius);
//beam_int_radius = 187.3; // radius inside the columns - used as reference radius //beam_int_radius=236.38; //for 375mm length horizontals //beam_int_radius=308.67; //for 500mm length horizontals //beam_int_radius =20; hbase= 46; // height of the base structure !! htop = 40; // height of top structure !! htotal= 800; //!! total height, including base and top structure. This variable shall be used by the below program to have true vertical travels housing_base=0; bed_level = 10; // !!
extrusion = 0; //!! Neutralise original extrusion drawing $bedDia=1; //!! neutralise original bed
car_hor_offset= 15; //!! from Scad files for Traxxas links - Offset for mag links is higher hcar = 86; car_vert_dist = 25; top_clearance=15; // clearance between top of the carriage and top structure
eff_hor_offset= 37; //!! as defined in SCAD file eff_vert_dist = 4; arm_space= 55; //!! space between the arms, as defined in configuration file //delta_angle = 60; arm_length = 340; // supersedes delta_angle mini_angle = 20; // !! Not defined in original description, but comply with bed size as shown hotend_vert_dist = 12; dia_ball= 8; dia_arm = 6; railthk =0; railwidth =0; rail_base=0; frame_corner_radius=100; frame_face_radius= 0; corner_offset=-65;
belt_dist=0; spool_diam = 0; spool_thk = 0;
//$vpt=[-96.47,108.38,198.51]; //$vpr =[55,0,25]; $vpd=camPos?2900:$vpd; //!! camera distance: work only if set outside a module $vpr=camPos?[80,0,42]:$vpr; //!! camera rotation $vpt=camPos?[152,-90,530]:$vpt; //!! camera translation //frame_color = [0.7,0.25,0.7,0.98]; //plate_color = [0.7,0.7,1.0,0.5]; //rod_color=[0.1,0.1,0.1,0.88]; //v_slot_color="silver"; //include
///////////////////////////////////////////////////////// //* Pasted DeltaFrame375_1000.scad here ** ///////////////////////////////////////////////////////// //======================================================== Frame_Ext_Len = 375; //Length of Horizontal Aluminum extrusions Frame_Ext_Ht = htotal; //!! length of extrusions for towers, need cut length Frame_Ext_Wid = 20; //Width of extrusions //Delta_Ang_1st = 30.77; //Angle to use for Arms for Calculating Initial Arm Length Frame_Motor_Ht = 41; //height of motor from vertex (Change to 40 or 41 for 2040, 80 for 2080, etc) Frame_Top_Ht = 41; //Height of Top Vertices (Change to 40 or 41 for 2040, 80 for 2080, etc) Alum_BaseThk = 6; //Thickness of Base below 1st extrusion (Will Decrease Build Height) //****These 14 variables are for 1x 2020 Bottom, Top Horizontal & Vertical extrusions //Alum_BaseHorWid = 20; //Size of Extrusions to use for Base //Alum_BaseHor_Z = 10; //10 for 2020, 30 for 2040, 50 for 2060 & 70 for 2080 //Alum_BaseGap = 0; //Gap between extrusions //Alum_BaseQty = 1; //How many Extrusions on Base //Alum_TopHorWid = 20; //Top Size of Extrusions to use for Top //Alum_TopHor_Z = 10; //10 for 2020, 30 for 2040, 50 for 2060 & 70 for 2080 //Alum_TopGap = 0; //Gap between extrusions //Alum_TopQty = 1; //How many Extrusions on Base //Printer_Xadd = 44.34; //2020 Vertical For Calculating X overall dimension of Printer //Alum_VertWid = 20; //use 20, 40, 60 or 80 for Vertical Extrusions //Alum_VertGap = 0; //Gap between Top extrusions (only used when Alum_TopQty = 2) //Alum_VertQty = 1; //How many vertical Extrusions at each Vertex //Vertex_X_offset = 20.98; //X Offset from end of 2020 Alum. Horizontal to Center of Vertical //Vertex_Y_offset = 16.34; //Y Offset from end of 2020 Alum. Horizontal to Center of Vertical
//****These 14 variables are for 2x 2020 Bottom, Top Horizontal & 2x Vertical extrusions //Alum_BaseHorWid = 20; //Size of Extrusions to use for Base //Alum_BaseHor_Z = 10; //10 for 2020, 30 for 2040, 50 for 2060 & 70 for 2080 //Alum_BaseGap = 20; //Gap between Bottom extrusions (only used when Alum_BaseQty = 2) //Alum_BaseQty = 2; //How many Extrusions on Base //Alum_TopHorWid = 20; //Top Size of Extrusions to use for Top //Alum_TopHor_Z = 10; //10 for 2020, 30 for 2040, 50 for 2060 & 70 for 2080 //Alum_TopGap = 20; //Gap between Top extrusions (only used when Alum_VertQty = 2) //Alum_TopQty = 1; //How many Extrusions at Top //Printer_Xadd = 44.34; //2020 Vertical For Calculating X overall dimension of Printer //Alum_VertWid = 20; //use 20, 40, 60 or 80 for Vertical Extrusions //Alum_VertGap = 20; //Gap between Top extrusions (only used when Alum_TopQty = 2) //Alum_VertQty = 2; //How many vertical Extrusions at each Vertex //Vertex_X_offset = 20.98; //X Offset from end of 2060 Alum. Horizontal to Center of Vertical //Vertex_Y_offset = 16.34; //Y Offset from end of 2060 Alum. Horizontal to Center of Vertical
//****These 14 variables are for 1x 2040 Bottom, Top Horizontal & Vertical extrusionsf Alum_BaseHorWid = 40; //Size of Extrusions to use for Base Alum_BaseHor_Z = 30; //10 for 2020, 30 for 2040, 50 for 2060 & 70 for 2080 Alum_BaseGap = 0; //Gap between extrusions Alum_BaseQty = 1; //How many Extrusions on Base Alum_TopHorWid = 40; //Size of Extrusions to use for Top Alum_TopHor_Z = 30; //10 for 2020, 30 for 2040, 50 for 2060 & 70 for 2080 Alum_TopGap = 0; //Gap between extrusions Alum_TopQty = 1; //How many Extrusions at Top Printer_Xadd = 54.34; //2040 Vertical For Calculating X overall dimension of Printer Alum_VertWid = 40; //use 20, 40, 60 or 80 for Vertical Extrusions Alum_VertGap = 0; //Gap between Top extrusions (only used when Alum_TopQty = 2) Alum_VertQty = 1; //How many vertical Extrusions at each Vertex Vertex_X_offset = 25.98; //X Offset from end of 2040 Alum. Horizontal to Center of Vertical Vertex_Y_offset = 25.0; //Y Offset from end of 2040 Alum. Horizontal to Center of Vertical
//****These 14 variables are for 1x 2060 Bottom, Top Horizontal & Vertical extrusions //Alum_BaseHorWid = 60; //Size of Extrusions to use for Base //Alum_BaseHor_Z = 50; //10 for 2020, 30 for 2040, 50 for 2060 & 70 for 2080 //Alum_BaseGap = 0; //Gap between extrusions //Alum_BaseQty = 1; //How many Extrusions on Base //Alum_TopHorWid = 60; //Size of Extrusions to use for Top //Alum_TopHor_Z = 50; //10 for 2020, 30 for 2040, 50 for 2060 & 70 for 2080 //Alum_TopGap = 0; //Gap between extrusions //Alum_TopQty = 1; //How many Extrusions at Top //Printer_Xadd = 64.4; //2060 Vertical For Calculating X overall dimension of Printer //Alum_VertWid = 60; //use 40, 60 or 80 for Vertical Extrusions //Alum_VertGap = 0; //Gap between Top extrusions (only used when Alum_TopQty = 2) //Alum_VertQty = 1; //How many vertical Extrusions at each Vertex //Vertex_X_offset = 31.01; //X Offset from end of 2060 Alum. Horizontal to Center of Vertical //Vertex_Y_offset = 33.71; //Y Offset from end of 2060 Alum. Horizontal to Center of Vertical
//****These 14 variables are for 1x 2080 Bottom, Top Horizontal & Vertical extrusions //Alum_BaseHorWid = 80; //Size of Extrusions to use for Base //Alum_BaseHor_Z = 70; //10 for 2020, 30 for 2040, 50 for 2060 & 70 for 2080 //Alum_BaseGap = 0; //Gap between extrusions //Alum_BaseQty = 1; //How many Extrusions on Base //Alum_TopHorWid = 80; //Size of Extrusions to use for Top //Alum_TopHor_Z = 70; //10 for 2020, 30 for 2040, 50 for 2060 & 70 for 2080 //Alum_TopGap = 0; //Gap between extrusions //Alum_TopQty = 1; //How many Extrusions at Top //Printer_Xadd = 74.4; //2080 Vertical For Calculating X overall dimension of Printer //Alum_VertWid = 80; //use 40, 60 or 60 for Vertical Extrusions //Alum_VertGap = 0; //Gap between Top extrusions (only used when Alum_TopQty = 2) //Alum_VertQty = 1; //How many vertical Extrusions at each Vertex //Vertex_X_offset = 36.01; //X Offset from end of Alum. Horizontal to Center of Vertical //Vertex_Y_offset = 42.37; //Y Offset from end of Alum. Horizontal to Center of Vertical
//This seems to be center of vertical to corner of where horizontals meet, (not sure I need this) //vertex_offset = 50.22; //For 2020 size Vertical //This seems to be center of vertical to corner of where horizontals meet, (not sure I need this) //vertex_offset = 50; //For 2040 size Vertical //This seems to be center of vertical to corner of where horizontals meet, (not sure I need this) //vertex_offset = 67.43; //For 2060 size Vertical (2x 2020 with 20mm gap) //This seems to be center of vertical to corner of where horizontals meet, (not sure it is needed) //vertex_offset = 67.43; //For 2060 size Vertical //This seems to be center of vertical to corner of where horizontals meet, (not sure I need this) //vertex_offset = 84.75; //For 2080 size Vertical Glass_Z_Offset = 4; //Offset of Glass above Frame Glass_Thk = 3; //Glass Thickness //======================================================== M5 = 5.5; //Hole Diameter HoleRes = 24; //Resolution of small Holes sin60 = 0.866025; cos60 = 0.5;
explode = 0.0; // set > 0.0 to push the parts apart (***Not implemented yet)
//These 2 variables are the same for any of the 2020, 2040, 2060 or 2080 extrusions //Car_OriginOffset_Y = 12; //Origin Offset of Carriages from Centerline of Vertical Extrusion //CarHorOff = 24; //Offset from Center line of Vertical Aluminums to Centerline of carriage arm connector //CarVerOff = 76.36 + (Frame_Top_Ht - 40); //Offset from Top of Frame to Centerline of carriage arm connector //echo("CarVerOff = ", CarVerOff); //Ef_Off = 37; //horizontal distance from center to pivot
//Eff_Half = Eff_Ht / 2;
//Calculate total Width of Verticals so we know which vertex to use Alum_VertTopWid = Alum_VertWid * Alum_VertQty + Alum_VertGap; //echo("Alum_VertTopWid = ", Alum_VertTopWid); //distance from center to center of Vertical extrusion & also origin of Vertex Plastic Part //This is the Delta Radius frame_rad = ((Frame_Ext_Len / 2) + Vertex_X_offset) / sin60; echo("frame_rad = ",frame_rad);
//15.23 is distance from Centerline of Vertical extrusion to outside edge of Plastic Vertex //Printer_Y = (frame_rad * 2) + (15.23 * 2); //Printer_X = (Printer_Xadd * 2) + Frame_Ext_Len; //Overall X Dimension of Printer //Print_Radius = frame_rad - (Frame_Ext_Wid / 2); //Arm_HorDist = frame_rad - EfOff - CarHorOff; //echo("**Arm_HorDist = ",Arm_HorDist); //Arm_Len = Arm_HorDist / sin(Delta_Ang_1st); //Arm length based on Delta_Ang_1st //echo("Arm_Len = ",Arm_Len); //Display calculated length based on orginal Delta_Angle //I had to use a temporary variable for Angle initially, since openscad does not seem to like me //redefining that variable after it was used //This allows user to change either the angle or the length of the arms //========================================= //=== Change Arm Length Variable Here ===== //========================================= //DELTA_DIAGONAL_ROD = Arm_Len; //Change this to what length you want //DELTA_DIAGONAL_ROD = 288; //DELTA_DIAGONAL_ROD = 250; //echo("DELTA_DIAGONAL_ROD = ",DELTA_DIAGONAL_ROD); //Re calculate Delta Angle & Vertical distance in case Arm Length was changed //Delta_Ang = asin(Arm_HorDist / DELTA_DIAGONAL_ROD); //echo("Delta_Ang = ",Delta_Ang); //echo("6x Horizontal Extrusions = ",Frame_Ext_Len,"mm"); //echo("3x Vertical Extrusions = ",Frame_Ext_Ht,"mm"); //Arm_VerDist = Arm_HorDist / tan(Delta_Ang); //RotRod = -Delta_Ang; //RotRod_Y = RotRod; //RotRod_X = RotRod; //RotRod_Z = RotRod; // //Rod_X = 30.5; //X offset of diagonal Arms //Rod_Y = 37; //Y offset from Center of effector //Eff_Top_Offset = Frame_Ext_Ht - (Arm_VerDist + CarVerOff + Eff_Half); //Hot_End_Z = (Eff_Top_Offset + Eff_Ht) - HotEnd_Ht; //echo("Frame_Ext_Ht",Frame_Ext_Ht); //echo("Arm_VerDist",Arm_VerDist); //echo("CarVerOff",CarVerOff); //echo("Eff_Half",Eff_Half); //echo("Eff_Top_Offset",Eff_TopOffset); //Eff_Top_Offset is off
//echo("=========Hot_End_Z = ",Hot_End_Z); //echo("Frame_Ext_Ht = ",Frame_Ext_Ht); //echo("Arm_VerDist = ",Arm_VerDist); //echo("CarVerOff = ",CarVerOff); //echo("Eff_Half = ",Eff_Half); //echo("Eff_Top_Offset = ",Eff_Top_Offset); //echo("asin(.511) = ",asin(0.5115816007)); //echo("*****"); Glass_Ht = Frame_Motor_Ht + Alum_BaseThk + Glass_Z_Offset; //endstop_Ht = 55; //Height of extrusion should be this number //carriage_length = 50.7/2; //half Length of Carriage along the Z axis //calc_carriage_Ht = Frame_Ext_Ht - (Frame_Top_Ht - 40) - carriage_length - endstop_Ht; //echo("calc_carriage_Ht = ",calc_carriage_Ht); //calc_carriage_Ht = 668.65 - 339.7; //Original Height - build Height //calc_carriage_Z = calc_carriage_Ht; //calc_carriage_X = calc_carriage_Ht; //calc_carriage_Y = calc_carriage_Ht; // //Calc_Endstop_z = Frame_Ext_Ht - endstop_Ht;
Frame_half = Frame_Ext_Len / 2; echo("Frame_half = ", Frame_half); Len=Frame_half+Vertex_X_offset; //echo("Len = ",Len);
frame_top = Frame_Ext_Ht - 20 + explode;
Len=Frame_half+Vertex_X_offset; frame_r1 = Len / sin60; //Distance from Center to Center of Vertical Extrusions //echo("frame_r1 = ",frame_r1); Y_Vertex = frame_r1 / 2; //Y offset from center to insert Vertices //echo("Y_Vertex = ",Y_Vertex); Alum_Y = Y_Vertex + Vertex_Y_offset; //Y offset from center to insert horizontal extrusions echo("Alum_Y = ",Alum_Y); BedRad = Alum_Y - 10; echo("BedRad =",BedRad); frame_color = [0.7,0.25,0.7,0.98]; plate_color = [0.7,0.7,1.0,0.5]; rod_color=[0.1,0.1,0.1,0.88]; v_slot_color="silver";
module DrawHorizontalAlumFrame() { V_Slot_H(); rotate([0,0,120]) V_Slot_H(); rotate([0,0,-120]) V_Slot_H(); } module DrawHorBaseAlumFrame() { V_Slot_H(Alum_BaseHorWid,Alum_BaseHor_Z + Alum_BaseThk); rotate([0,0,120]) V_Slot_H(Alum_BaseHorWid,Alum_BaseHor_Z + Alum_BaseThk); rotate([0,0,-120]) V_Slot_H(Alum_BaseHorWid,Alum_BaseHor_Z + Alum_BaseThk); } module DrawHorTopAlumFrame() { V_Slot_H(Alum_TopHorWid,Alum_TopHor_Z); rotate([0,0,120]) V_Slot_H(Alum_TopHorWid,Alum_TopHor_Z); rotate([0,0,-120]) V_Slot_H(Alum_TopHorWid,Alum_TopHor_Z); } module V_Slot_H(Htype = Alum_BaseHorWid,Z_Ht = Alum_BaseHor_Z) { if (Htype == 20) { translate([-Frame_half,-Alum_Y,Z_Ht]) rotate([0,90,0]) V_Slot_20x20(Frame_Ext_Len); } if (Htype == 40) { translate([-Frame_half,-Alum_Y,Z_Ht]) rotate([0,90,0]) V_Slot_20x40(Frame_Ext_Len); } if (Htype == 60) { translate([-Frame_half,-Alum_Y,Z_Ht]) rotate([0,90,0]) V_Slot_20x60(Frame_Ext_Len); } if (Htype == 80) { translate([-Frame_half,-Alum_Y,Z_Ht]) rotate([0,90,0]) V_Slot_20x80(Frame_Ext_Len); } } module Vertex_Motor() { if (Alum_VertTopWid == 20) { Vertex2020_Motor(Frame_Motor_Ht); //Draw 1st, 2nd and 3rd bottom Vertex } if (Alum_VertTopWid == 40) { Vertex2040_Motor(Frame_Motor_Ht); //Draw 1st, 2nd and 3rd bottom Vertex } if (Alum_VertTopWid == 60) { Vertex2060_Motor(Frame_Motor_Ht); //Draw 1st, 2nd, and 3rd bottom Vertex } if (Alum_VertTopWid == 80) { Vertex2080_Motor(Frame_Motor_Ht); //Draw 1st, 2nd, and 3rd bottom Vertex } } module VertexTop(Ht_V=Frame_Top_Ht) { if (Alum_VertTopWid == 20) { Vtex2020(Ht_V); //Draw 1st, 2nd and 3rd bottom Vertex } if (Alum_VertTopWid == 40) { Vtex2040(Ht_V); //Draw 1st, 2nd and 3rd bottom Vertex } if (Alum_VertTopWid == 60) { Vtex2060(Ht_V); //Draw 1st, 2nd, and 3rd bottom Vertex } if (Alum_VertTopWid == 80) { Vtex2080(Ht_V); //Draw 1st, 2nd, and 3rd bottom Vertex } }
//Vertex2040_Motor(Frame_Motor_Ht + Alum_BaseThk); module Vertex2040_Motor(Ht_V=Frame_Motor_Ht) { if (Alum_BaseThk == 0) { Vtex2040(Ht_V); } else { difference() { union() { Vtex2040(Ht_V); translate([0,0,-Alum_BaseThk]) linear_extrude(height = Alum_BaseThk, center = false, convexity = 10)polygon(points = [[-33.33,-12.73],[-33.05,-13.17],[-32.72,-13.58],[-32.35,-13.95],[-31.94,-14.27], [-31.5,-14.56],[-31.03,-14.8],[-30.55,-14.98],[-30.04,-15.12],[-29.52,-15.2], [-29,-15.23],[29,-15.23],[29.52,-15.2],[30.04,-15.12],[30.55,-14.98], [31.03,-14.8],[31.5,-14.56],[31.94,-14.27],[32.35,-13.95],[32.72,-13.58], [33.05,-13.17],[33.33,-12.73],[77.94,65],[54.85,65],[49.07,65], [40.99,51],[40.71,50.56],[40.38,50.15],[40.01,49.78],[39.6,49.45], [39.16,49.17],[38.7,48.93],[38.21,48.74],[37.7,48.61],[37.18,48.53], [36.66,48.5],[-36.66,48.5],[-37.18,48.53],[-37.7,48.61],[-38.21,48.74], [-38.7,48.93],[-39.16,49.17],[-39.6,49.45],[-40.01,49.78],[-40.38,50.15], [-40.71,50.56],[-40.99,51],[-49.07,65],[-77.94,65],[-33.05,-13.17]]); } Vtex2040Cuts(); //Make the internal cuts } } } module Vtex2040Cuts() { //Vertical Extrusion opening translate([0,0,-50]) linear_extrude(height = 100, center = false, convexity = 10)polygon(points = [[-20.13,-10.13],[-14.5,-10.13],[-12.7,-8.32],[-7.3,-8.32],[-5.5,-10.13], [5.5,-10.13],[7.3,-8.32],[12.7,-8.32],[14.5,-10.13],[20.13,-10.13], [20.13,10.13],[-20.13,10.13]]); //Big Opening translate([0,0,-50]) linear_extrude(height = 100, center = false, convexity = 10)polygon(points = [[-21.65,17.5],[-21.37,17.06],[-21.04,16.65],[-20.67,16.28],[-20.26,15.95], [-19.82,15.67],[-19.35,15.43],[-18.87,15.24],[-18.36,15.11],[-17.84,15.03], [-17.32,15],[-15.5,15],[-15.5,13.5],[15.5,13.5],[15.5,15], [17.32,15],[17.84,15.03],[18.36,15.11],[18.87,15.24],[19.35,15.43], [19.82,15.67],[20.26,15.95],[20.67,16.28],[21.04,16.65],[21.37,17.06], [21.65,17.5],[30.89,33.5],[31.13,33.97],[31.31,34.45],[31.45,34.96], [31.53,35.48],[31.56,36],[31.53,36.52],[31.45,37.04],[31.31,37.55], [31.13,38.03],[30.89,38.5],[30.6,38.94],[30.27,39.35],[29.9,39.72], [29.5,40.05],[29.06,40.33],[28.59,40.57],[28.1,40.76],[27.6,40.89], [27.08,40.97],[26.56,41],[-26.56,41],[-27.08,40.97],[-27.6,40.89], [-28.1,40.76],[-28.59,40.57],[-29.06,40.33],[-29.5,40.05],[-29.9,39.72], [-30.27,39.35],[-30.6,38.94],[-30.89,38.5],[-31.13,38.03],[-31.31,37.55], [-31.45,37.04],[-31.53,36.52],[-31.56,36],[-31.53,35.48],[-31.45,34.96], [-31.31,34.45],[-31.13,33.97],[-30.89,33.5]]); } module Vtex2040(Ht_V=Frame_Motor_Ht) { //This was traced from the profile of vertex_20x40.stl difference() { linear_extrude(height = Ht_V, center = false, convexity = 10)polygon(points = [[-43.3,5],[-43.3,4.54],[-33.33,-12.73],[-33.05,-13.17],[-32.72,-13.58], [-32.35,-13.95],[-31.94,-14.27],[-31.5,-14.56],[-31.03,-14.8],[-30.55,-14.98], [-30.04,-15.12],[-29.52,-15.2],[-29,-15.23],[29,-15.23],[29.52,-15.2], [30.04,-15.12],[30.55,-14.98],[31.03,-14.8],[31.5,-14.56],[31.94,-14.27], [32.35,-13.95],[32.72,-13.58],[33.05,-13.17],[33.33,-12.73],[43.3,4.54], [43.3,5],[25.98,15],[54.85,65],[49.07,65],[40.99,51], [40.71,50.56],[40.38,50.15],[40.01,49.78],[39.6,49.45],[39.16,49.17], [38.7,48.93],[38.21,48.74],[37.7,48.61],[37.18,48.53],[36.66,48.5], [-36.66,48.5],[-37.18,48.53],[-37.7,48.61],[-38.21,48.74],[-38.7,48.93], [-39.16,49.17],[-39.6,49.45],[-40.01,49.78],[-40.38,50.15],[-40.71,50.56], [-40.99,51],[-49.07,65],[-54.85,65],[-25.98,15]]); Vtex2040Cuts(); //Make the internal cuts } } module V_Slot_20x20(Ht_A=Frame_Ext_Len) { color(v_slot_color) rotate([0,0,-90]) difference() { linear_extrude(height = Ht_A, center = false, convexity = 10)polygon(points = [[-10,-8.5],[-8.5,-10],[-4.64,-10], [-2.84,-8.2],[-5.5,-8.2],[-5.5,-6.56], [-2.84,-3.9],[2.84,-3.9],[5.5,-6.56], [5.5,-8.2],[2.84,-8.2],[4.64,-10], [8.5,-10],[10,-8.5],[10,-4.64], [8.2,-2.84],[8.2,-5.5],[6.56,-5.5], [3.9,-2.84],[3.9,2.84],[6.56,5.5], [8.2,5.5],[8.2,2.84],[10,4.64], [10,8.5],[8.5,10],[4.64,10], [2.84,8.2],[5.5,8.2],[5.5,6.56], [2.84,3.9],[-2.84,3.9],[-5.5,6.56], [-5.5,8.2],[-2.84,8.2],[-4.64,10], [-8.5,10],[-10,8.5],[-10,4.64], [-8.2,2.84],[-8.2,5.5],[-6.56,5.5], [-3.9,2.84],[-3.9,-2.84],[-6.56,-5.5], [-8.2,-5.5],[-8.2,-2.84],[-10,-4.64]]); translate([0,0,-1]) cylinder(d=M5,h=Ht_A+2,$fn=HoleRes); } } module V_Slot_Vert() { if (Alum_VertTopWid == 20) { translate([10,0,0]) //Move additional 10mm to left for 2060 size V_Slot_20x20(Frame_Ext_Ht); //Draw 1st Vertical Extrusion } if (Alum_VertTopWid == 40) { V_Slot_20x40(Frame_Ext_Ht); //Draw 1st Vertical Extrusion } if (Alum_VertTopWid == 60) { if (Alum_VertWid == 60) { translate([-10,0,0]) //Move additional 10mm to left for 2060 size V_Slot_20x60(Frame_Ext_Ht); //Draw 1st Vertical Extrusion } if (Alum_VertWid == 20) { translate([-10,0,0]) //Move additional 10mm to left for 2060 size V_Slot_20x20(Frame_Ext_Ht); //Draw 1st Vertical Extrusion translate([30,0,0]) //Move additional 10mm to left for 2060 size V_Slot_20x20(Frame_Ext_Ht); //Draw 1st Vertical Extrusion } } if (Alum_VertTopWid == 80) { translate([-20,0,0]) //Move additional 10mm to left for 2060 size V_Slot_20x80(Frame_Ext_Ht); //Draw 1st Vertical Extrusion } } module V_Slot_20x40(Ht_A=Frame_Ext_Len) { //This was traced from the V-Slot 20x40 & taking out the small details color(v_slot_color) rotate([0,0,-90]) difference() { linear_extrude(height = Ht_A, center = false, convexity = 10)polygon(points = [[-3.9,22.84],[-3.9,17.16],[-6.56,14.5],[-8.2,14.5],[-8.2,17.16], [-10,15.36],[-10,4.64],[-8.2,2.84],[-8.2,5.5],[-6.56,5.5], [-3.9,2.84],[-3.9,-2.84],[-6.56,-5.5],[-8.2,-5.5],[-8.2,-2.84], [-10,-4.64],[-10,-8.5],[-8.5,-10],[-4.64,-10],[-2.84,-8.2], [-5.5,-8.2],[-5.5,-6.56],[-2.84,-3.9],[2.84,-3.9],[5.5,-6.56], [5.5,-8.2],[2.84,-8.2],[4.64,-10],[8.5,-10],[10,-8.5], [10,-4.64],[8.2,-2.84],[8.2,-5.5],[6.56,-5.5],[3.9,-2.84], [3.9,2.84],[6.56,5.5],[8.2,5.5],[8.2,2.84],[10,4.64], [10,15.36],[8.2,17.16],[8.2,14.5],[6.56,14.5],[3.9,17.16], [3.9,22.84],[6.56,25.5],[8.2,25.5],[8.2,22.84],[10,24.64], [10,28.5],[8.5,30],[4.64,30],[2.84,28.2],[5.5,28.2], [5.5,26.56],[2.84,23.9],[-2.84,23.9],[-5.5,26.56],[-5.5,28.2], [-2.84,28.2],[-4.64,30],[-8.5,30],[-10,28.5],[-10,24.64], [-8.2,22.84],[-8.2,25.5],[-6.56,25.5]]); //Cut opening between 20x20's translate([0,0,-1]) linear_extrude(height = Ht_A+2, center = false, convexity = 10)polygon(points = [[-8.2,7.3],[-6.24,7.3],[-2.84,3.9],[2.84,3.9],[6.24,7.3], [8.2,7.3],[8.2,12.7],[6.24,12.7],[2.84,16.1],[-2.84,16.1], [-6.24,12.7],[-8.2,12.7]]); translate([0,0,-1]) cylinder(d=M5,h=Ht_A+2,$fn=HoleRes); //Drill M5 holes translate([0,20,-1]) cylinder(d=M5,h=Ht_A+2,$fn=HoleRes); } } module GlassTab() { difference() { union() { cylinder(d=25.4,h=3.6,$fn=80); translate([-12.7,12.7,0]) cube([25.4,28.2,3.6]); } translate([0,0,-1]) cylinder(d=3.45,h=5.6,$fn=HoleRes); } } module SpiralBedClamp() { rotate([0,0,180]) translate([0,0,7.5]) rotate([180,0,0]) difference() { union() { linear_extrude(height = 4, center = false, convexity = 10)polygon(points = [[-2.1,-4.16],[-2.1,-10.34],[-2.01,-10.77],[-1.74,-11.12],[-1.35,-11.31], [-0.91,-11.33],[1.24,-10.72],[3.24,-9.77],[5.02,-8.5],[6.56,-6.96], [7.78,-5.2],[8.67,-3.26],[9.2,-1.23],[9.35,0.44],[9.34,1.28], [9.04,3.31],[8.54,4.86],[7.61,6.65],[6.38,8.22],[4.83,9.55], [3.14,10.51],[1.32,11.11],[-0.93,11.34],[-2.62,11.16],[-4.37,10.61], [-5.94,9.72],[-7.27,8.55],[-8.31,7.15],[-9,5.58],[-9.33,3.94], [-9.28,2.29],[-8.87,0.77],[-8.13,-0.62],[-7.1,-1.76],[-5.88,-2.58], [-4.51,-3.06],[-3.15,-3.17],[-2.72,-3.24],[-2.36,-3.49],[-2.2,-3.74]]); translate([0,0,4]) linear_extrude(height = 3.5, center = false, convexity = 10)polygon(points = [[-2.1,-2.64],[-2.1,-7.27],[-2.01,-7.68],[-1.77,-8.02],[-1.41,-8.22], [-0.99,-8.26],[0.44,-7.81],[2.03,-6.99],[3.1,-6.2],[4.04,-5.28], [4.95,-4.08],[5.57,-2.94],[6.01,-1.76],[6.2,-0.94],[6.32,-0.11], [6.34,0.51],[6.31,1.54],[6.09,2.74],[5.7,3.89],[5.09,5.02], [4.32,6.03],[3.54,6.77],[2.46,7.5],[1.17,8.05],[0.11,8.29], [-1.16,8.33],[-2.36,8.14],[-3.48,7.71],[-4.34,7.18],[-5.07,6.52], [-5.73,5.62],[-6.12,4.74],[-6.33,3.73],[-6.32,2.86],[-6.14,2.03], [-5.99,1.65],[-5.78,1.27],[-5.72,1],[-5.53,0.49],[-5.13,-0.22], [-4.58,-0.82],[-3.91,-1.29],[-3.16,-1.6],[-2.76,-1.7],[-2.52,-1.83], [-2.32,-2.02],[-2.18,-2.25],[-2.1,-2.64]]); } translate([-2.14,1.98,-1]) cylinder(d=6,h=5,$fn=HoleRes); translate([-2.14,1.98,3]) cylinder(d=3.5,h=6,$fn=HoleRes); } } module GlassTabs() { color(frame_color) { translate([0,-Alum_Y,Frame_Motor_Ht + Alum_BaseThk]) GlassTab(); translate([0,-Alum_Y,Frame_Motor_Ht + Alum_BaseThk + 3.6]) SpiralBedClamp(); } } //====================================================================== //=== This is where Vertices & Aluminum of the Delta is put together === //====================================================================== module DrawFrame() { //Draw Bottom Vertex corners color(frame_color) { for (z = [-120:120:120]) { rotate([0,0,z]) translate([0,frame_rad,Alum_BaseThk]) rotate([0,0,180]) Vertex_Motor(Frame_Motor_Ht); } //Draw Top Vertex corners for (z = [-120:120:120]) { rotate([0,0,z]) translate([0,frame_rad,Frame_Ext_Ht-Frame_Top_Ht]) rotate([0,0,180]) VertexTop(Frame_Top_Ht); //Draw 1,2,3 top Vertex } } //Draw the Bottom Horizontal Aluminum Extrusion(s) DrawHorBaseAlumFrame(); if (Alum_BaseQty == 2) { translate([0,0,Alum_BaseHorWid + Alum_BaseGap]) DrawHorBaseAlumFrame(); } //Draw the Top Horizontal Aluminum Extrusion(s) translate([0,0,Frame_Ext_Ht - Alum_TopHorWid]) DrawHorTopAlumFrame(); //Draw Top Aluminum Frame if (Alum_TopQty == 2) { translate([0,0,Frame_Ext_Ht - Alum_TopHorWid - Alum_TopHorWid - Alum_TopGap]) DrawHorTopAlumFrame(); //Draw Top Aluminum Frame }
//Draw Vertical Aluminum extrusions translate([-Len,-Y_Vertex,0]) rotate([0,0,-60]) translate([-10,0,0]) V_Slot_Vert(); //V_Slot_20x40(Frame_Ext_Ht); //Draw 1st Vertical Extrusion
translate([Len,-Y_Vertex,0]) rotate([0,0,60]) translate([-10,0,0]) V_Slot_Vert(); //V_Slot_20x40(Frame_Ext_Ht); //Draw 2nd Vertical Extrusion
translate([0,frame_rad,0]) rotate([0,0,0]) translate([-10,0,0]) V_Slot_Vert(); //V_Slot_20x40(Frame_Ext_Ht); //Draw 3rd Vertical Extrusion } module DrawFinal() { DrawFrame(); //Draw Alum. Extusions & 6 Vertices
GlassTabs(); rotate([0,0,120]) GlassTabs(); rotate([0,0,-120]) GlassTabs(); //Draw Glass Build Plate translate([0,0,Glass_Ht]) color(plate_color) cylinder(r=BedRad+5,h=Glass_Thk); //Draw Build plate cylinder } //module frame() //{ // //Dummy routine to bypass main routine //}
— Reply to this email directly or view it on GitHub https://github.com/PRouzeau/OpenSCAD-Delta-Simulator/issues/1#issuecomment-147673284 . https://github.com/notifications/beacon/AMdsoDxeyNmKTXDr_wOi0gTj0tn9GDi4ks5o7NHygaJpZM4GNe2h.gif
— Reply to this email directly or view it on GitHub https://github.com/PRouzeau/OpenSCAD-Delta-Simulator/issues/1#issuecomment-147694951.
Pierre Rouzeau - Proud indigenous of old Europe
L'absence de virus dans ce courrier électronique a été vérifiée par le logiciel antivirus Avast. https://www.avast.com/antivirus
I really like your delta simulator & created a data set for a delta design I am thinking about building. I ran into a couple of limitations of openscad that I had to get around. In your Delta_simulator.scad, I added the new data set on line 108 as shown in next paragraph & had to comment out line 211 so the data_Delta-Six.scad file would draw the frame. I included a link to the data file and an animation .gif below. I also had to define: beam_int_radius = 236.506; rather than using a formula: beam_int_radius = frame_rad - 10;
Line 108 added: include //V-Slot Openbuilds Delta-Six by Sage
Line 211 commented out Frame(); so the data_Delta-Six routine could draw its version of the frame.
http://www.zewind.com/data_Delta-Six.scad heep://www.zewind.com/V-Slot_DeltaAnimation.gif
Here is the link the build log the author & others have on this design: http://www.openbuilds.com/builds/delta-six.476/
Thanks for a cool openSCAD program,
David