[User]
Hey, I'm looking to create a parametric keychain capsule in OpenSCAD, similar to the design I've been using but I want it generated from scratch so that it can be more easily customized, and I want to add some more advanced features.

Essentially, it's a capsule made of two halves that screw together, with the option for a loop for a keyring. I'd like to use BOSL2 because I am familiar with it, so this should utilize features from that library.

Here's a breakdown of the parameters I'd like to control:

**Capsule Dimensions:**

*   `insideLength`: The length of the interior space of the assembled capsule.
*   `insideWidth`: The diameter of the interior space of the capsule (it’s a cylinder).
*   `wallThickness`: The thickness of the capsule walls.
*   `overlapLength`: How much the two capsule halves overlap for the screw thread.
*   `threadPitch`: Pitch of the screw thread between the halves
*   `threadClearance`: amount of radial clearance for the thread

**Loop Dimensions (optional):**

*   `loopEnabled`: Boolean to enable or disable the loop.
*   `loopDiameter`: The inside diameter of the loop for the keyring.
*  `loopThickness`: The thickness of the loop.

**Other Parameters:**

*   `renderTop`: Boolean to render the top half of the capsule.
*  `renderBottom`: Boolean to render the bottom half of the capsule.
*   `separation`: Distance to separate the top and bottom halves when both are rendered. This should be a translation of the top half along the Z-axis.

**Additional Features I'd like:**
*   **Screw Threads**: I'd like proper screw threads on both halves, so they actually screw together.
*   **Rounded edges:** It would be nice if there is a small bevel or fillet on all outside edges and corners.
*   **Customizable end caps:** It would be good if the end caps were also customizable, perhaps as a sphere or a slightly rounded end cap.

I think that covers everything. Can you generate the OpenSCAD code for this using BOSL2 library functions? I'd like it to be as efficient and maintainable as possible.

[Assistant]
CapsuleKeychain.scad:
```
//Resolution
$fn = 30;
/* [Capsule size] */
//the length of the inside of the capsule
insideLength = 82;
//the inside diameter of the capsule
insideWidth = 17;
//sets how thick the walls of the capsule will be
wallThickness = 1;
//how much the two halves overlap to connect together
overlap = 2;

/* [Loop Dimensions] */
//change to false if you do not want the loop on the keychain
loop = "yes"; //[yes, no]
//How big do you want the inside of the loop to be (how thick is keyring)
loopDiameter = 4;
//How thick do you want the walls of the loop to be
loopThickness = 2;

/* [Top and Bottom] */
//if true, the top will render
top = "true"; //[true, false]
// if true the bottom will rendered
bottom = "true"; //[true, false]
//allows you to separate the two halfs when both are rendered (leave at 0 if rendering 1 half)
separate = 20;

module keychain(){
  //makes the top half of the keychain
  if(top == "true") translate([0,0,separate/2]){
    difference(){
        union(){
          resize([insideWidth+wallThickness*2,insideWidth+wallThickness*2,insideLength/2+wallThickness])
          capsuleHalf();
          //makes the loop that holds the keychain on the keyring
          if(loop == "yes"){
            translate([0,0,(insideLength)/2+loopDiameter/2+wallThickness])
              rotate([0,90,0])
               rotate_extrude()
                translate([loopDiameter/2+loopThickness/2,0,0])
                  circle(r = loopThickness/2);
          }
        }
      union(){
        capsuleHalf();
        cylinder(r = (insideWidth+wallThickness)/2, h = overlap);
      }
    }
  }
  //makes the bottom half of the keychain
  if(bottom == "true") translate([0,0,-separate/2]){
    rotate([180,0,0]){
      difference(){
        union(){
          resize([insideWidth+wallThickness*2,insideWidth+wallThickness*2,insideLength/2+wallThickness])
            capsuleHalf();
          cylinder(r = insideWidth/2+wallThickness/2, h = wallThickness*2);
        }
        capsuleHalf();
      }
    }
    difference(){
      cylinder(r = (insideWidth+wallThickness)/2, h = overlap);
      cylinder(r = insideWidth/2, h = overlap);
    }
  }
}
module capsuleHalf(){
  cylinder(r = insideWidth/2, h = (insideLength-insideWidth)/2);
    translate([0,0,(insideLength-insideWidth)/2])
      sphere(r = insideWidth/2);
}

keychain();

```


[User]
I'd like to create a parametric, printable One-Armed Bandit (slot machine) using OpenSCAD. I've got a basic idea of the design and a parts list, but I need help creating the actual SCAD code.

The machine will be driven by three stepper motors, and I want it to be able to handle 5 cent Euro coins, or similar. The core components are a main body with a rotating arm, a dispensing door, and a visual indicator (LED).

Here's a breakdown of what I'm thinking, and what I need in the final parametric design:

**Core Structure:**

*   **Base:** A stable base unit holding the other components. I need parameters for width, depth, and height, and the ability to adjust the thickness of the walls and internal structures. I also need a slot for coin collection.
*   **Main Body:** This is the main housing for the mechanism. It should connect to the base and contain mounts for the stepper motors, a space for the main rotating cylinder, and room for associated wiring. It should have adjustable width, height and depth. I will also need a way of defining the size of the opening where the rotating cylinders are visible.
*   **Top:** A top piece that connects with the main body. This will have cutouts for the LED light and potentially some aesthetic features.
*   **Door:** A hinged door with a magnetic closure, used for dispensing money. I need parameters for door size, and hinge placement, as well as the magnet size and location.

**Mechanical Components:**

*   **Rotating Cylinder:** The visible reels of the slot machine. These should be cylindrical with a given height and diameter. I need the option to define the number of reels as well as the images to put on their perimeters. I am thinking of 3 for now.
*   **Arm:** A rotating lever controlled by a stepper motor. I need parameters for length, rotation radius, and the connection point with the motor shaft. I also need to define the end of the arm.
*   **Stepper Motor Mounts:** Mounts to securely hold the stepper motors. These should be parameterized for common stepper motor sizes, with options for bolt-hole positions and countersinking. I will need 3 of these mounts.
*  **Arm Shaft:** Mount for the arm which attaches to the stepper motor shaft.

**Electrical Components:**

*   **LED Mount:** A mount for the LED, designed for easy insertion and replacement. This needs parameters for the LED dimensions, and for the depth and diameter of the mount.
*   **Switch Mount:** A mount for microswitches, for detecting coin insertion and potentially for the rotation position of the arm. The switch mount should have parameter for switch dimensions, including mount points.
*   **Coin Slot:** An opening to accept coins, with internal guiding features to push the coin into the right position. This should be adjustable for different coin sizes.
*   **Wiring Channels:** Channels inside the machine to route wires neatly and safely. These should be adjustable for wire gauge, and should exist between the base and main body.
*   **Magnet Holder:** A holder for the magnet on the door, and a space for the coil.

**Additional Considerations:**

*   I'd like to use the `MCAD` library for any screw threads and bolts.
*   I would like to use BOSL2 for the gear creation if needed.
*   The design should be easily printable and have features like rounded edges, chamfers, and tolerances for assembly.
*   I need parameters for material thickness for the parts, as this will determine the overall size and strength.
*   It should be easy to assemble, without any need for glue.

Could you help me generate a parametric OpenSCAD design with all of the components listed above, as well as their described relationships? I'm not sure where to begin with all the parameters, but I'm hoping you can help me create a flexible design that I can easily adjust.

[Assistant]
OneArmedBandit.scad:
```
/*

*/

difference(){
union(){
cube([150,200,40]);
translate([20,-20,0])
cube([110,240,40]);

translate([20,0,0])
cylinder(40,20,20,$fn=130);
translate([130,0,0])
cylinder(40,20,20,$fn=130);
translate([20,200,0])
cylinder(40,20,20,$fn=130);
translate([130,200,0])
cylinder(40,20,20,$fn=130);

}
translate([8,-13,2])
cube([134,224,60]);
rotate([0,90,0])
translate([-20,140,0])
cylinder(40,3,3,$fn=130);

}
```
OneArmedBanditArm.scad:
```
/*

*/

difference(){
union(){
sphere(10);
cylinder(60,4,4,$fn=60);
rotate([90,0,0])
translate([0,60,-5])
cylinder(15,10,10,$fn=60);

}
rotate([90,0,0])
translate([0,60,-6])
cylinder(18,3.2,3.2,$fn=60);
translate([-25,-25,67])
cube([50,50,10]);
translate([-6,-15,56.5])
cube([2.2,30,6.4]);
rotate([0,90,0])
translate([-60,0,-15])
cylinder(30,1.6,1.6,$fn=60);

}

```
OneArmedBanditBase.scad:
```
/*

*/

difference(){
union(){
translate([-25,35,0])
cube([100,3,135]);
translate([-17,-6,0])
cube([2,43,135]);
translate([55,-6,0])
cube([2,43,135]);

//connector beams
translate([0,25,0])
cube([10,10,35]);
translate([30,25,0])
cube([10,10,35]);
//wall
translate([-17,-7,0])
cube([74,43,2]);
translate([20,-10,0])
cylinder(2,35,35,$fn=130);
translate([-17,-7,133])
cube([74,43,2]);
translate([20,-10,133])
cylinder(2,35,35,$fn=130);
translate([20,-10,129])
cylinder(10,10,10,$fn=130);
translate([15,-38,0])
cube([10,75,8]);
translate([15,-19,130])
cube([10,55,5]);
}

//connector beams
translate([35,30,-1])
cylinder(200,1.8,1.8,$fn=130);
translate([5,30,-1])
cylinder(200,1.8,1.8,$fn=130);
//money slot
translate([67,30,60.5])
cube([10,10,26]);
rotate([90,0,0])
translate([69,56,-40])
cylinder(30,1.2,1.2,$fn=130);
rotate([90,0,0])
translate([69,92,-40])
cylinder(30,1.2,1.2,$fn=130);
//wires
translate([15,25,30])
cube([10,20,80]);
//arm
translate([20,-10,110])
cylinder(30,3,3,$fn=130);
//switch
translate([25,-25,110])
cylinder(30,1.2,1.2,$fn=130);
translate([15,-25,110])
cylinder(30,1.2,1.2,$fn=130);
//spring
translate([20,10,110])
cylinder(30,1.7,1.7,$fn=130);
//led
rotate([90,0,0])
translate([68,125,-40])
cylinder(30,2.5,2.5,$fn=130);

}
```
OneArmedBanditLedShade.scad:
```
/*

*/

difference(){
union(){

//lampring

cylinder(30,24,12,$fn=130);

translate([0,0,21])
sphere(15);

}
//lampring
translate([0,0,2])
cylinder(28,22,10,$fn=130);
translate([0,0,-1])
cylinder(6,10,10,$fn=130);
translate([0,0,21])
sphere(14);

}
```
OneArmedBanditBottom.scad:
```
/*

*/

difference(){
union(){
//outside
cube([104,3,137]);
cube([2,74,137]);
translate([104,0,0])
cube([2,74,137]);
cube([104,74,2]);
translate([0,0,137])
cube([106,74,2]);
//inside
translate([102,0,0])
cube([2,71,137]);
translate([2,0,0])
cube([2,71,137]);
translate([0,0,2])
cube([104,71,2]);
translate([0,0,135])
cube([106,71,2]);
 //slope
rotate([0,0,-30])
translate([1,2,60])
cube([3,44,30]);
//money walls
translate([-8,0,58])
cube([34,68,3]);
translate([-8,0,90])
cube([34,68,3]);
translate([23,0,58])
cube([3,38,34]);

}
//money
rotate([0,0,-30])
translate([-19,-6,61])
cube([20,32,29]);
translate([-4,65,50])
cylinder(60,1.7,1.7,$fn=60);
translate([-4,67,50])
cylinder(60,1.7,1.7,$fn=60);

//money switch
translate([14,63,50])
cylinder(40,1.2,1.2,$fn=60);
translate([14,53,50])
cylinder(40,1.2,1.2,$fn=60);
//supply plug
rotate([0,90,0])
translate([-120,20,90])
cylinder(20,4,4,$fn=60);
//coin opening
rotate([0,90,0])
translate([-75.5,74,-1])
cylinder(20,13,13,$fn=60);

}
```
OneArmedBanditArmShaft.scad:
```
/*

*/

difference(){
union(){

cylinder(30,3,3,$fn=60);

cylinder(5,4,4,$fn=60);
translate([5,0,0])
cylinder(5,6,6,$fn=60);
}

}

```
OneArmedBanditCylinder.scad:
```
/*

*/

difference(){
union(){

cylinder(26,32,32,$fn=130);

}
translate([0,0,6])
cylinder(33,30,30,$fn=130);
translate([-1.5,-2.5,-1])
cube([3,5,30]);
}
```
OneArmedBanditTOP.scad:
```
/*

*/

difference(){
union(){
translate([-15,35,0])
cube([70,3,135]);
translate([-17,-15,0])
cube([2,53,135]);
translate([55,-15,0])
cube([2,53,135]);

//wall
translate([-15,-8,0])
cube([70,44,2]);
translate([-15,22,2])
cube([70,13,4]);
translate([-15,-8,133])
cube([70,44,2]);
translate([-15,15,130])
cube([70,20,4]);
//lampring
rotate([90,0,0])
translate([20,70,-40])
cylinder(4,10,10,$fn=130);
}
translate([20,-10,-1])
cylinder(4,35,35,$fn=130);
translate([20,-10,132])
cylinder(4,35,35,$fn=130);
translate([-18,-18,35])
cube([4,30,95]);
//led
rotate([90,0,0])
translate([20,70,-40])
cylinder(10,2.5,2.5,$fn=130);
//lampring
rotate([90,0,0])
translate([20,70,-42])
cylinder(4,8,8,$fn=130);

}
```
OneArmedBanditSwitchMount.scad:
```
/*

*/

difference(){
union(){
cube([27,16,20]);
translate([-7,0,0])
cube([41,8,2]);

}
//coin
translate([1,1,-1])
cube([25,3,30]);
rotate([90,0,0])
translate([13.5,0,-3])
cylinder(5,12.5,12.5,$fn=130);

//switch
translate([9.5,1,-1])
cube([7,18,30]);

translate([18,5,-1])
cube([20,12,30]);
translate([-12,5,-1])
cube([20,12,30]);

//switch
rotate([0,90,0])
translate([-6,13,-1])
cylinder(30,1.2,1.2,$fn=130);
rotate([0,90,0])
translate([-16,13,-1])
cylinder(30,1.2,1.2,$fn=130);
//mount
translate([-4,2.5,-1])
cylinder(10,1.2,1.2,$fn=130);
translate([31,2.5,-1])
cylinder(10,1.2,1.2,$fn=130);

}

```
OneArmedBanditStepperSupport.scad:
```
/*

*/

difference(){
union(){

//connector beams
translate([0,25,0])
cube([10,10,33]);
translate([30,25,0])
cube([10,10,33]);
//stepper support
translate([0,-2,0])
cube([40,37,3]);
translate([20,-10,0])
cylinder(3,22,22,$fn=130);

}
//motor shaft
translate([20,-18,-1])
cylinder(100,6,6,$fn=130);
//counter sink
translate([2.5,-10,1.5])
cylinder(2,1.6,3.6,$fn=130);
 translate([37.5,-10,1.5])
cylinder(2,1.6,3.6,$fn=130);
//bolt
translate([2.5,-10,-2])
cylinder(20,1.7,1.7,$fn=130);
 translate([37.5,-10,-2])
cylinder(20,1.7,1.7,$fn=130);
//connector beams
translate([35,30,-1])
cylinder(100,1.8,1.8,$fn=130);
translate([5,30,-1])
cylinder(100,1.8,1.8,$fn=130);
}
```
OneArmedBanditDoor.scad:
```
/*

*/

difference(){
union(){

cube([38,60,2]);
cube([12,60,6]);
translate([38,0,0])
cube([2,60,6]);

}
//hinge
rotate([0,90,0])
translate([-4,3,-5])
cylinder(50,1.6,1.6,$fn=60);
//magnet
translate([6,50,2])
cylinder(5,5.5,5.5,$fn=60);
}
```
OneArmedBanditDoor.scad:
```
/*

*/

difference(){
union(){

cube([38,60,2]);
cube([2,60,6]);
translate([38,0,0])
cube([12,60,6]);

}
//hinge
rotate([0,90,0])
translate([-4,3,-5])
cylinder(50,1.6,1.6,$fn=60);
//magnet
translate([44,50,2])
cylinder(5,5.5,5.5,$fn=60);
}
```
OneArmedBanditDoor.scad:
```
/*

*/

difference(){
union(){

cube([38,60,2]);
cube([2,60,6]);
translate([38,0,0])
cube([12,60,6]);

}
//hinge
rotate([0,90,0])
translate([-4,3,-5])
cylinder(60,1.6,1.6,$fn=60);
//magnet
translate([44,50,2])
cylinder(5,5.5,5.5,$fn=60);
//coin
translate([20,0,-1])
cylinder(5,15,15,$fn=60);
}
```
OneArmedBanditDoor.scad:
```
/*

*/

difference(){
union(){

cube([38,63,2]);
cube([2,63,12]);
translate([38,0,0])
cube([12,63,12]);
translate([10,63,0])
cube([20,2,12]);
 }
//hinge
rotate([0,90,0])
translate([-9,3,-5])
cylinder(60,1.6,1.6,$fn=60);
//magnet
translate([44,53,8])
cylinder(5,5.5,5.5,$fn=60);
//coin
translate([20,0,-1])
cylinder(5,15,15,$fn=60);
}
```
OneArmedBanditDoor.scad:
```
/*

*/

difference(){
union(){

cube([38,63,2]);
cube([2,63,12]);
translate([38,0,0])
cube([12,63,12]);
translate([10,63,0])
cube([20,2,12]);
cube([38,1,12]);
 }
//hinge
rotate([0,90,0])
translate([-9,4,-5])
cylinder(60,1.6,1.6,$fn=60);
//magnet
translate([44,53,8])
cylinder(5,5.5,5.5,$fn=60);

}
```


[User]
Hi, I'm looking for an OpenSCAD design for a toothbrush and floss holder that I can 3D print. I'd like it to be relatively simple and easy to clean. I'm thinking it should attach to a mirror or wall with double-sided tape.

The design should hold multiple toothbrushes and optionally have places for floss picks on either side. Here's a breakdown of the parameters I'd like to be able to control:

*   **Number of Toothbrushes:** I'd like to be able to specify how many toothbrushes the holder should accommodate, probably between 1 and 6.
*   **Toothbrush Separation:**  The space between each toothbrush holder should be adjustable, maybe between 15 and 30mm.
*   **Toothbrush Neck Size:** The diameter of the toothbrush holding cylinders should be adjustable too, maybe options ranging from 5mm to 10mm in 0.5mm increments.
*   **Distance from Mirror:** I need to set how far out the holder extends from the mirror surface; maybe allow a range of 15mm to 45mm.
*  **Wall Size/Thickness**: The thickness of the main body of the holder.  Let's make that adjustable from 2mm to 4mm in .5mm increments.
*   **Floss Holders:** Whether to include floss pick holders at all. I'd prefer a simple 'yes' or 'no' option.
*   **Floss Holders (Left):** If floss holders are enabled, I need to be able to set how many there are on the left side. Maybe from 0 to 6.
*   **Floss Holders (Right):** Same as above, but for the right side, from 0 to 6.
*   **Floss Width:** The width of the floss pick holding slots should be adjustable, probably somewhere between 2.5mm and 5mm.
*   **Floss Distance:** The spacing between each floss pick holder should be adjustable; 2mm to 8mm maybe.
*   **Floss Depth:** The depth of the floss pick holding slots. Maybe adjustable between 6mm and 12mm.

I'm hoping for something that's sturdy but doesn't use a lot of plastic. I'm not very experienced with OpenSCAD, so a single file would probably be easiest. I don't need any specific libraries or anything fancy, just standard OpenSCAD functions.

[Assistant]
Toothbrush_Holder_V2.scad:
```
/*
// dgazineu@gmail.com (Douglas Gazineu)
// Rev1: 2016-08-25 :: Initial Release
// Rev2: 2016-11-10 :: Added Floss holders
//
*/

/* [General Options] */
// Number of Toothbrushes
Toothbrush_Number=4; //[1:6]
Toothbrush_Separation=20; //[15:30]
Toothbrush_NeckSize=7.5; //[5,6.5,7,7.5,8,8.5,9,9.5,10]
Distance_FromMirror=29; //[15:45]
Wall_Size = 3; //[2,2.5,3,3.5,4]
Floss = "y"; // [y:Yes, n:No]
Floss_Left = 2; //[0:6]
Floss_Right = 2; //[0:6]
Floss_Width = 4; //[2.5,3,4,5]
Floss_Distance = 6;//[2:8]
Floss_Depth = 10;//[6:12]

module prism(l, w, h) {
       polyhedron(points=[
               [0,0,h],           // 0    front top corner
               [0,0,0],[w,0,0],   // 1, 2 front left & right bottom corners
               [0,l,h],           // 3    back top corner
               [0,l,0],[w,l,0]    // 4, 5 back left & right bottom corners
       ], faces=[ // points for all faces must be ordered clockwise when looking in
               [0,2,1],    // top face
               [3,4,5],    // base face
               [0,1,4,3],  // h face
               [1,2,5,4],  // w face
               [0,3,5,2],  // hypotenuse face
       ]);
}

module holder(){
    $fn= 20;
    Holder_Width = Toothbrush_Separation*(Toothbrush_Number+(2/3))+2*Wall_Size;
    Holder_Depth = Distance_FromMirror + 13;
    Holder_Height = (3*Distance_FromMirror/5) + 10;
    Round_Corners = 2*Holder_Depth/5;

   difference(){
        union(){
            prism(Wall_Size,Distance_FromMirror,Holder_Height);
            hull(){
                translate([0,Round_Corners/2,0]) cube([Holder_Depth,Holder_Width-Round_Corners,Wall_Size]);
                cube([1,Holder_Width,Wall_Size]);
                translate([Holder_Depth-Round_Corners/2,Round_Corners/2,0]) cylinder( h = Wall_Size, r = Round_Corners/2);
                translate([Holder_Depth-Round_Corners/2,Holder_Width-Round_Corners/2,0]) cylinder( h = Wall_Size, r = Round_Corners/2);
            }
            cube([Wall_Size,Holder_Width,Holder_Height]);
            translate ([0,Holder_Width-Wall_Size,0]) prism(Wall_Size,Distance_FromMirror,Holder_Height);
            intersection(){
                hull(){
                    translate([0,Round_Corners/2,0]) cube([Holder_Depth,Holder_Width-Round_Corners,3*Wall_Size]);
                    cube([1,Holder_Width,3*Wall_Size]);
                    translate([Holder_Depth-Round_Corners/2,Round_Corners/2,0]) cylinder( h = Wall_Size, r = Round_Corners/2);
                    translate([Holder_Depth-Round_Corners/2,Holder_Width-Round_Corners/2,0]) cylinder( h = Wall_Size, r = Round_Corners/2);
                }
                rotate([0,0,180]) translate ([-Holder_Depth,0,0]) mirror([0,1,0]) prism(Holder_Width,Distance_FromMirror,1.6*Wall_Size);
            }
        if ( Floss == "y"){

            difference(){
            hull(){
              translate([Holder_Depth-Round_Corners/2,0,0])
              if (Floss_Right > 0){
                 translate([0,-(Floss_Width+Floss_Distance)*Floss_Right,0]) cylinder( h = Wall_Size, r = Round_Corners/2);
              }
              else {
                 translate([0,Round_Corners/2,0]) cylinder( h = Wall_Size, r = Round_Corners/2);
              }

              translate([Holder_Depth-Round_Corners/2,Holder_Width,0])
              if (Floss_Left > 0){
                 translate([0,(Floss_Width+Floss_Distance)*Floss_Left,0]) cylinder( h = Wall_Size, r = Round_Corners/2);
              }
              else {
                 translate([0,-Round_Corners/2,0]) cylinder( h = Wall_Size, r = Round_Corners/2);
              }
             }
            union(){
               if (Floss_Right > 0){
                 for (a =[1:Floss_Right]) {
                  translate([Holder_Depth-((Round_Corners/2)+(Floss_Depth/2)), -(Floss_Width+Floss_Distance)*a, -Wall_Size/2]) cube([Floss_Depth,Floss_Width,Wall_Size*2]);
                 }
               }
                if (Floss_Left > 0){
                 for (b =[1:Floss_Left]) {
                  translate([Holder_Depth-((Round_Corners/2)+(Floss_Depth/2)), Holder_Width+(Floss_Width+Floss_Distance)*b-(Floss_Distance/2),-Wall_Size/2])   cube([Floss_Depth,Floss_Width,Wall_Size*2]);
                 }
               }
             }
           }
          }
        }
        union(){
            for (a = [1:Toothbrush_Number]){
                translate ([Distance_FromMirror,Wall_Size+((a-2/3)*Toothbrush_Separation)+(Toothbrush_Separation/2),-0.1]) cylinder( h = 3*Wall_Size, r = Toothbrush_NeckSize/2);
                translate ([Distance_FromMirror,Wall_Size+((a-2/3)*Toothbrush_Separation)+(Toothbrush_Separation/2)-Toothbrush_NeckSize/2,-0.1]) cube([16,Toothbrush_NeckSize,3*Wall_Size]);
            }
        }
    }
}

module view(){
   mirror([0,1,0]) holder();
}

view();

```


[User]
I need a parametric OpenSCAD design for a nameplate suitable for miniature railways. I want the design to be highly customizable.

The basic shape should be a rectangular plate, 180mm long, 100mm wide, and 4.5mm thick. There should be a recessed area in the center for text, with a surrounding border that's 4mm wide and raised 2.5mm from the recessed area (4.5mm - 2mm letter depth = 2.5mm). The corners of the plate should be rounded, with a radius equal to the border width (4mm).

I'd like the option to add mounting holes in each corner. The holes should be 3.8mm in diameter, centered in the rounded corners. I also want the ability to add a countersink to these holes, with the countersink depth being a customizable parameter. If the countersink depth is set to 0, there should be no countersink. The same goes for the hole diameter - if it's set to 0, there should be no holes at all.

The text should be extruded to a depth of 2mm, matching the depth of the recess. I want to be able to specify two lines of text, with customizable font (ideally using Google Fonts), size, and letter spacing. The first line should read "ENGINE" and the second "SHED", but I want to be able to change these to any text I like. The text should be centered horizontally on the plate. The vertical position of the first line should be roughly centered within the top half of the recessed area, and the second line should be roughly centered within the bottom half. I might need to adjust these positions slightly depending on the font, so flexibility here would be appreciated.

I understand that the OpenSCAD `text()` function has issues when working with Google fonts that require multiple words; I'd like this design to use single-word font names.

Could you create an OpenSCAD file that allows me to customize all of these parameters: plate length, width, and thickness, letter depth, border width, hole diameter, countersink depth, font, font size, letter spacing, and the text for both lines? The file should be called `Engine_Shed_2.scad`. No additional libraries should be used.

[Assistant]
Engine_Shed_2.scad:
```
//  Oblong Nameplate
//  Peter Griffiths

plate_length = 180;
plate_width = 100;
plate_thickness = 4.5;
letter_depth = 2;
surround_width = 4; // Border Thickness
hole_diameter = 3.8; // zero removes holes
counter_sink = 0; // zero removes countersink
f_ont = "roboto";
f_size = 30; // Letter Size
f_space = 1.1; // Letter spacing
text1 = "ENGINE";
text2 = "SHED";

module plate()
    difference(){
        cube([plate_length,plate_width,plate_thickness]);
        translate([surround_width,surround_width,plate_thickness - letter_depth])
            cube([plate_length - surround_width*2, plate_width - surround_width*2,letter_depth+1]);
    }

module plate_main(){
 plate();
 translate([surround_width,surround_width,0])
        cylinder(r=surround_width,h=plate_thickness);
 translate([plate_length - surround_width,surround_width,0])
        cylinder(r=surround_width,h=plate_thickness);
 translate([surround_width,plate_width - surround_width,0])
        cylinder(r=surround_width,h=plate_thickness);
 translate([plate_length - surround_width,plate_width - surround_width,0])
        cylinder(r=surround_width,h=plate_thickness);
}
 if (hole_diameter >0){
     difference(){
         plate_main();
         $fn=40;
         translate([surround_width,surround_width,-0.5])
            cylinder(d=hole_diameter , h= plate_thickness+1);
         translate([plate_length - surround_width,surround_width,-0.5])
            cylinder(d=hole_diameter, h=plate_thickness+1);
         translate([surround_width,plate_width - surround_width,-0.5])
            cylinder(d=hole_diameter, h=plate_thickness+1);
         translate([plate_length - surround_width,plate_width - surround_width,-0.5])
            cylinder(d=hole_diameter, h=plate_thickness+1);

         if (counter_sink >0){
             translate([surround_width,surround_width, plate_thickness- counter_sink])
             cylinder(h=counter_sink, d1=hole_diameter, d2=hole_diameter + counter_sink*2);
             translate([plate_length - surround_width,surround_width,plate_thickness-counter_sink])
             cylinder(h=counter_sink, d1=hole_diameter,   d2=hole_diameter + counter_sink*2);
             translate([surround_width,plate_width -surround_width, plate_thickness- counter_sink])
             cylinder(h=counter_sink, d1=hole_diameter, d2=hole_diameter + counter_sink*2);
             translate([plate_length - surround_width,plate_width - surround_width, plate_thickness- counter_sink])
             cylinder(h=counter_sink, d1=hole_diameter, d2=hole_diameter + counter_sink*2);
         }
     }
 }
// Text line 1
 translate([plate_length/2,plate_width/2+f_size/6, plate_thickness - letter_depth]) {
     linear_extrude(height = letter_depth){
        text(text1, font = f_ont, size = f_size, halign = "center", spacing= f_space);
     }
 }
 // Text line 2
  translate([ plate_length/2,plate_width/2-f_size*1.08, plate_thickness - letter_depth]) {
     linear_extrude(height = letter_depth){
        text(text2, font = f_ont, size = f_size, halign = "center",spacing= f_space);
     }
 }
```


[User]
I need an OpenSCAD model for a part that will hold my dishwasher door open slightly to let water vapor escape after a cycle is finished. It needs to attach to the dishwasher's existing door latch pin and provide its own pin to connect to the dishwasher body, securing the door in a slightly open position.

Here's what I'm thinking for the design:

*   **Main Body:** A rectangular prism with customizable length (35-55mm), height (9mm), and width (14-30mm). This will form the main part of the spacer.
*   **Latch Connection:** On one end, there should be a feature to connect to the existing dishwasher latch pin. This should be a combination of a rectangular block and a rounded cylinder (diameter of 6mm) that "hulls" together smoothly, and there should be two cylindrical cutouts (diameter of 13mm, with a small scaling factor) to make space for the existing latch pin.
*   **Dishwasher Body Connection:** On the other end, a cylindrical pin (with a scaling factor) should extend out to connect to the dishwasher body. This pin should be centered and have a diameter based on a customizable parameter.
*   **Optional Hanging Hole:**  A customizable option should allow the addition of a circular hole (customizable diameter, default 8mm) through the center of the spacer, so it can be hung up when not in use.

I'd like the design to be parametric, so I can easily adjust the dimensions in the OpenSCAD Customizer.

In terms of libraries, please use the MCAD library for this project, since it has useful functions for creating common shapes.

I've attached an image (DishWasher_Spacer.png) to illustrate the approximate shape I'm going for.

Can you help me create this OpenSCAD model?

[Assistant]
DishWasher_Spacer.scad:
```
/*
// dgazineu@gmail.com (Douglas Gazineu)
// Rev1: 2016-08-25 :: Initial Release
//
*/

/* [General Options] */
Length=40;//[35:55]
Height=9;
Width=18; //[14:30]
Hanging_Hole=1; //[0:No,1:Yes]
Hanging_Hole_Diameter=8;

module spacer(){
    $fn=20;
    difference(){
        fitting(Height);
        union(){
            if (Hanging_Hole ==1 ) cylinder( h = 2*Height, d = Hanging_Hole_Diameter, center=true);
            translate([-Length+8,0,0]) scale([1,1.2,1]) difference(){
                fitting(2*Height);
            }
        }
    }
}

module fitting(Height){
    $fn=20;
    difference(){
        hull(){
            translate([-Length/2, -Width/2, -Height/2]) cube([Length/3, Width, Height]);
            translate([Length/2, 0, 0]) scale([1.25,1,1]) cylinder( h = Height, d = 6, center=true);
        }
        union(){
            translate([Length/2-3, Width/2+(10-Width/2), 0]) scale([1,1.35,1])cylinder( h = 2*Height, d = 13, center=true);
            translate([Length/2-3, -Width/2-(10-Width/2), 0]) scale([1,1.35,1])cylinder( h = 2*Height, d = 13, center=true);
        }
    }
}
module view(){
   spacer();
}

view();

```


[User]
Hi! I'm looking to design a wall-mounted rack for my juggling clubs, and I'd really like something that's easily customizable for different club sizes and mounting hardware. I have an existing design, but it's a bit clunky, and I'd like to start fresh with a parametric approach using OpenSCAD. I envision using the Customizer app with it eventually, so I'm hoping to get a well-organized design that will work nicely there.

Here are the key parameters I'd like to control:

*   **`clubs_wide`**:  The number of clubs the rack should hold horizontally (e.g., 1, 2, 3, etc.). I'd like to be able to set this with an integer value, perhaps a range from 1 to 9.
*   **`clubs_thick`**: How many clubs are stacked "deep" in one slot. I am not sure if it is a good idea to go higher than 2 on this setting. 1 is the most likely default.
*   **`bulb_diameter`**: The diameter of the widest part of my club (the bulb). This should be a variable I can adjust in millimeters, with a reasonable range of maybe 60mm to 100mm and resolution of 0.5mm.
*   **`handle_diameter`**: The diameter of the handle near the knob, in millimeters, again adjustable. A range of 5 to 40 mm with 0.5 mm resolution should be good.
*   **`knob_diameter`**: The diameter of the knob, in millimeters. I think 20 to 40 mm with 0.5 mm resolution should work here.
*   **`bracket_thickness`**:  How thick the material of the bracket is. 16mm seems to work well, but it would be nice to be able to adjust between 10 to 40 mm with 0.5mm resolution.
*   **`screw_head_diameter`**: The diameter of the screw heads I'll be using for mounting (millimeters). This should be adjustable between 1 and 10 mm with 0.5 mm resolution.
*   **`screw_head_Thickness`**: The thickness of the screw heads, also in millimeters. Range of 1 to 10 mm, and 0.25 mm resolution
*    **`screw_diameter`**: The diameter of the screws' shafts, in millimeters.  Range of 1 to 10 mm with 0.25 mm resolution.

The design should consist of the following:

*   A main bracket with rectangular or perhaps slightly rounded edges.
*   Holes cut out to accommodate the clubs, with a larger hole for the knob/bulb and a narrower slot leading to it that the handle goes through.
*   Supports (ideally triangular) along the back of the main bracket, mostly where the clubs sit, to improve rigidity.
*   Countersunk mounting holes spaced along the main bracket.

I'm not too picky on the overall look, as long as it's functional and easy to adjust.  I'd like to ensure the club slots have a bit of extra clearance (maybe +2mm on the diameters) to make it easy to put the clubs in and out, while making sure the slots are the proper size.

I think it would also be good to have a `$fn` variable, which defaults to 30, to control the number of faces on cylinders.

I don't need anything fancy or any specific libraries for this, just a well structured and functional OpenSCAD file, or a few if it makes the design easier to manage. Thanks!

[Assistant]
clubHolder.scad:
```
//How many slots wide do you want
clubs_wide = 3; //[1:1:9]
//How many clubs fit in one slots
clubs_thick = 1; //[1:1:2]
//What is the diameter of the bulb on your club
bulb_diameter = 92; //[60:.5:100]
//How thick is the handle near the knob
handle_diameter = 23.5; //[5:.5:40]
//How thick the knob on your clubs are
knob_diameter = 34; //[20:.5:40]
//How thick do you want the bracket to be (16mm recomended)
bracket_thickness = 16; //[10:.5:40]
$fn = 30;

//Mounting (add some a couple millimeters to ensure an easy fit)
screw_head_diameter = 8.5; //[1:.5:10]
screw_head_Thickness = 3.5; //[1:.25:10]
screw_diameter = 5; //[1:.25:10]

module bracket(){
  translate([-(bulb_diameter*clubs_wide)/2,0,0])
    difference(){
      union(){
        cube([bulb_diameter*clubs_wide,bulb_diameter*clubs_thick,bracket_thickness]);
        translate([0,0,bracket_thickness])
          cube([bulb_diameter*clubs_wide,bracket_thickness,(bulb_diameter/2)-bracket_thickness]);
        for(h = [0:bulb_diameter:bulb_diameter*(clubs_wide-2)])
          translate([bulb_diameter+h,bracket_thickness,bracket_thickness])
            support();
      }
      //cuts out the holes that the clubs fit in
      union(){
        for(i = [0:bulb_diameter:bulb_diameter*(clubs_thick-1)])
          for(j = [0:bulb_diameter:bulb_diameter*(clubs_wide-1)])
            translate([bulb_diameter/2+j,bulb_diameter/2+i,0])
              union(){
                cylinder(r = handle_diameter/2+2, h = bracket_thickness+.1);
                translate([0,0,bracket_thickness/2])
                  cylinder(r = knob_diameter/2+2, h = bracket_thickness/2+.1);
              }
        //cuts the slots so the clubs can slide in
        for(k = [0:bulb_diameter:bulb_diameter*(clubs_wide-1)]){
          translate([bulb_diameter/2+k,bulb_diameter/2+(bulb_diameter*clubs_thick)/2,bracket_thickness/2])
            cube([handle_diameter+2,bulb_diameter*clubs_thick,bracket_thickness+.1],center = true);
        translate([k,0,0])
          mountingHoles();
        }
      }
    }
}
//generates triangle supports
module support(){
  cylinderRadius = .001;
  rotate([0,90,0]) hull(){
    cylinder(r = cylinderRadius, h = handle_diameter/2, center = true);
    translate([-(bulb_diameter/2-bracket_thickness),0,0])
      cylinder(r = cylinderRadius, h = handle_diameter/2, center = true);
    translate([0,(bulb_diameter*clubs_thick)-bracket_thickness,0])
      cylinder(r = cylinderRadius, h = handle_diameter/2, center = true);
  }
}
module mountingHoles(){
  translate([bulb_diameter/2,screw_head_Thickness*2,bulb_diameter/4]) rotate([0,-90,90]){
    hull(){
      cylinder(r = screw_head_diameter/2, h = screw_head_Thickness);
      translate([screw_head_diameter,0,0])
        cylinder(r = screw_head_diameter/2, h = screw_head_Thickness);
    }
    translate([0,0,screw_head_Thickness]) hull(){
      cylinder(r = screw_head_diameter/2, h = screw_head_Thickness+1);
      translate([screw_head_diameter,0,0])
        cylinder(r = screw_diameter/2, h = screw_head_Thickness+1);
    }
  }

}

  bracket();

```


[User]
I need you to create a parametric OpenSCAD design for a customizable nameplate, something I could use for a door sign. The nameplate should be oblong, with rounded corners. I want to be able to specify the length, width, and thickness of the plate.

There should be an option to add screw holes in the corners, and if I choose to have them, I'd also like the option for countersinking. The screw holes should have a user-defined diameter, and the countersink should also be configurable. If I decide against the screw holes, I don't want them to be present at all.

The main feature of the nameplate is a single line of text. The text should be recessed into the plate, and I want to control the depth of the letters. I want to use Google fonts for the text, and I should be able to adjust the font, font size, and letter spacing. The text should be centered on the plate.

The nameplate should have a border around the edge. I need to be able to set the width of this border.

Here's a basic idea of what the nameplate should look like, conceptually, in terms of the parameters:

```
plate_length = 180;
plate_width = 40;
plate_thickness = 4.5;
letter_depth = 2;
surround_width = 4;
hole_diameter = 4; // zero removes holes
counter_sink = 0; // zero removes countersink
f_ont = "roboto condensed";
font_size = 16;
letter_space = 1;
text1 = "STATION MASTER";
```

I want all of these features to be configurable in the OpenSCAD file so I can easily adjust the design to my needs. I might be using this in other projects, so I'd appreciate it if you could ensure that all these parameters are defined at the top of the file for easy access. This project utilizes the `MCAD/fonts.scad` library, so please take that into consideration.

[Assistant]
Station_Master.scad:
```
//  Oblong Nameplate
//  Single line of text
//  Peter Griffiths 2016

plate_length = 180;
plate_width = 40;
plate_thickness = 4.5;
letter_depth = 2;
surround_width = 4;
hole_diameter = 4; // zero removes holes
counter_sink = 0; // zero removes countersink
f_ont = "roboto condensed";
font_size = 16;
letter_space = 1;
text1 = "STATION MASTER";

module plate()
    difference(){
        cube([plate_length,plate_width,plate_thickness]);
        translate([surround_width,surround_width,plate_thickness - letter_depth])
            cube([plate_length - surround_width*2, plate_width - surround_width*2,plate_thickness - letter_depth]);
    }

module plate_main(){
 plate();
 translate([surround_width,surround_width,0])
        cylinder(r=surround_width,h=plate_thickness);
 translate([plate_length - surround_width,surround_width,0])
        cylinder(r=surround_width,h=plate_thickness);
 translate([surround_width,plate_width - surround_width,0])
        cylinder(r=surround_width,h=plate_thickness);
 translate([plate_length - surround_width,plate_width - surround_width,0])
        cylinder(r=surround_width,h=plate_thickness);
}
 if (hole_diameter >0){
     difference(){
         plate_main();
         $fn=40;
         translate([surround_width, surround_width, -0.5])
            cylinder(d=hole_diameter , h= plate_thickness+1);
         translate([plate_length - surround_width,surround_width, -0.5])
            cylinder(d=hole_diameter, h=plate_thickness+1);
         translate([surround_width, plate_width - surround_width, -0.5])
            cylinder(d=hole_diameter, h=plate_thickness+1);
         translate([plate_length - surround_width,plate_width - surround_width, -0.5])
            cylinder(d=hole_diameter, h=plate_thickness+1);

         if (counter_sink >0){
             translate([surround_width,surround_width, plate_thickness- counter_sink])
             cylinder(h=counter_sink, d1=hole_diameter, d2=hole_diameter + counter_sink*2);
             translate([plate_length - surround_width, surround_width,plate_thickness - counter_sink])
             cylinder(h=counter_sink, d1=hole_diameter,   d2=hole_diameter + counter_sink*2);
             translate([surround_width, plate_width - surround_width, plate_thickness - counter_sink])
             cylinder(h=counter_sink, d1=hole_diameter, d2=hole_diameter + counter_sink*2);
             translate([plate_length - surround_width,plate_width - surround_width, plate_thickness - counter_sink])
             cylinder(h=counter_sink, d1=hole_diameter, d2=hole_diameter + counter_sink*2);
         }
     }
 }
// Text line 1
 translate([plate_length/2, plate_width/2 - font_size/2, plate_thickness - letter_depth]) {
     $fn=60;
     linear_extrude(height = letter_depth){
        text(text1, font = f_ont, size = font_size, halign = "center", spacing = letter_space);
     }
 }
```


[User]
Okay, I need a sun visor for my Garmin Nuvi 1300 GPS unit. I have an existing OpenSCAD file that I've been using, but it's warping in the heat, so I want to start fresh and maybe try some new parameters. I'd like you to design a new OpenSCAD file, or maybe a few linked files, that will let me customize the visor's dimensions and how it attaches to the GPS.

The basic design should be a visor that extends out from the top of the GPS, kind of like a backwards baseball cap brim. The visor needs to slide down over the top of the GPS unit and hold itself in place. I want to be able to adjust the following:

*   **GPS Width (bbx):** The width of my GPS unit itself, which is currently 122.55mm.
*   **Visor Depth (bby):** How far the visor extends out from the face of the GPS. The existing design is 60mm.
*   **GPS Thickness/Gap (GThick):**  The thickness of the GPS unit, which is important for the visor to slide over the top of the GPS, currently 15.65mm. This also corresponds to the gap.
*   **Visor Height (z):** How far down the left and right shade extends. In my existing design, that is 63mm.
*   **Holding Lip X (hx):** How much the side lips of the visor extend across the face of the GPS. Mine is currently 10mm.
*   **Holding Lip Z (hz):** How far down the top lip of the visor extends (to grab the top of the GPS). I'm using 5mm.
*   **Holding Bracket Depth (hbd):** How far down the holding bracket goes. My current visor uses 55mm which leaves space to avoid the USB plug.
*   **Back Support Cut Width (bsx):** The width of a cut needed for the back support bracket, which is 31mm on my current design.
*  **Back Support Thickness (bsy):** How much of the GPS thickness should remain in the back support without interfering with the mounting. This can be a negative number. I used 3mm in my design.
*   **Corner Cut Z (crnrz):** From the bottom, how much of the shade corner should be cut off in the z direction (height). I'm using 30mm.
*   **Corner Cut Y (crnry):** From the bottom, how much of the shade corner should be cut off in the y direction (depth).  My current design is 60mm.
*   **Material Thickness (thick):** The thickness of all the visor walls; currently 2mm.

I'd like the design to be parametric so I can adjust these values easily. It would be great if you could make the main body of the visor a simple box shape with some cuts in it to form the visor shape, and cuts at the top to provide the grip. In the existing code, there is a back circular cut that wraps around to the bottom - I'd like to keep that.

I think that's all. Let me know if you have any questions. I'm not sure which libraries would be best to use, so whatever you think works best is fine.

[Assistant]
GarminSunShadeVisor.scad:
```
//by Eric Hughes

//Roundness - 20 for testing, 50 for printing
$fn=50;

//Thickness of panes
thick = 2;//

//GPS Width
bbx = 122.55;

//How far the shade extends out from the face
bby = 60;

//GPS thickness (gap needed to slide down from top)
GThick = 15.65;

// How far down the left and right shade extends
z = 63;

//holding bracket lip on x (sides).  How much covers face.
hx = 10;

//holding bracket lip in Z (top)
hz = 5;

//how far down holding bracket goes (if hbd=z then all the way)(don't let it cover your USB power jack)
hbd = 55;

//width of cut needed for back support bracket
bsx = 31;

//how much of GThick can stay without bracket getting in the way.  If it overhangs the face this number should be negative
bsy = 3;

//from the bottom, how much of the shade corder should be cut off in the z direction (height)
crnrz=30;

//from the bottom, how much of the shade corner should be cut off in the y direction (depth)
crnry=60;

finalizeshade();
//buildshade();

module finalizeshade(){
difference(){
    moveshade();
    cornercut();
    }}

module moveshade(){
translate([(bbx+2*thick)/2, (bby+GThick+thick)/2, (z+thick)/2]){
buildshade();
}}

module cornercut(){
rotate([90,0,90])
//rotate(90)
linear_extrude(height=500){
polygon(points=[[0,0],[crnry,0],[0,crnrz]]);
}}

module buildshade(){
    difference(){
    holder();
    cutblock2();
        }
difference(){
    baseblock();
    cutblock1();
    backsupportcut();
    backcut();
    backcircularcut();
}}

module baseblock(){
    cube([bbx+2*thick, bby+GThick+thick, z+thick],center=true);
}

module cutblock1(){
    translate([0,-thick,-thick]){
    cube([bbx, bby+GThick+thick , z+thick],center=true);
}}

module holder(){
     translate([0,((bby+GThick)/2)-thick-GThick,(z-hbd)/2]){
    cube([bbx+2*thick, thick, z+thick-(z-hbd)],center=true);
}}

module cutblock2(){
    translate([0,-thick-.01,-thick-hz-.01]){
    cube([bbx-2*hx, bby+GThick+thick, z+thick],center=true);
}}

module backsupportcut(){
    translate([0,25+(bby/2)+(GThick/2)+(thick/2)-thick-(GThick-bsy),0]){
    cube([bsx,50, 2*z],center=true);
    }}

module backcut(){
    translate([0,0,-hbd-thick]){
        cube([bbx, bby+GThick+thick, z+thick],center=true);
}}

module backcircularcut(){
    translate([0,.5+(bby+GThick+thick)/2,(z+thick)/2-thick-hbd]){
    rotate([90,0,0]){
        scale([1,(hbd-hz)/((bbx-2*hx)/2)])cylinder(h=thick+1, d=(bbx-2*hx));
}}}

```


[User]
I need an OpenSCAD design for an oval nameplate, kind of like the ones you see on old railway equipment. It needs to be customizable with up to three lines of text, each potentially having its own font, size, and vertical adjustment.

Here are the specific requirements and parameters I’d like to be able to control:

*   **Overall shape:** An oval plate, with adjustable width and height.
*   **Plate Thickness:** The thickness of the plate itself.
*   **Letter Depth:** The depth of the text engraving (the text should be recessed).
*   **Surround Width:**  A border around the text, inset from the edge of the oval.
*   **Holes:** Optional mounting holes, with adjustable diameter and spacing. These holes should be able to be removed via a parameter. I'd also like the option of countersinking the holes with a settable countersink depth, which should be a zero value to disable.
*   **Text:**
    *   Three lines of text, each configurable with its own text string.
    *   Each line has its own font, size, and vertical height adjustment, which should allow for positive or negative adjustment of the lines relative to the plate's center.
    *   Text spacing should also be adjustable.
*   **Fonts:** All Google fonts should be usable.

I'm thinking of the parameters being something like this:
```
oval_height = 70;
oval_width = 105;
plate_thickness = 4;
letter_depth = 1.5;
surround_width = 3;
hole_diameter = 4; // zero removes holes
hole_spacing = 92;
counter_sink = 0; // zero removes countersink

font_1 = "unna";
font_size_1 = 15;
font_2 = "libre baskerville";
font_size_2 = 18;
font_3 = "libre baskerville";
font_size_3 = 8;

letter_space = 1;

text_1="2";
height_adjust_1 = -4;
text_2="L M S";
height_adjust_2 = -3;
text_3="";
height_adjust_3 = 0;
```
Could you generate the OpenSCAD code for this? I don't need any libraries, I'd like it all in a single file.

[Assistant]
oval_plate.scad:
```
//  Oval Nameplate
//  Up to three lines of text
//  Peter Griffiths 2016

oval_height = 70;
oval_width = 105;
plate_thickness = 4;
letter_depth = 1.5;
surround_width = 3;
hole_diameter = 4; // zero removes holes
hole_spacing = 92;
counter_sink = 0; // zero removes countersink

font_1 = "unna";
font_size_1 = 15;
font_2 = "libre baskerville";
font_size_2 = 18;
font_3 = "libre baskerville";
font_size_3 = 8;

letter_space = 1;

text_1="2";
height_adjust_1 = -4;
text_2="L M S";
height_adjust_2 = -3;
text_3="";
height_adjust_3 = 0;

module plate()
    difference(){
        hull() {
            $fn=60;
            resize([oval_width, oval_height, plate_thickness])        cylinder(r=10,h=1);
        }
        hull() {
            $fn=60;
            translate([0,0,plate_thickness - letter_depth])
            resize([oval_width - surround_width*2, oval_height - surround_width*2]) cylinder(r=10,h=letter_depth+0.1);
        }
        if (hole_diameter >0){
            $fn=40;
            translate([hole_spacing/2,0,0])
            cylinder(d=hole_diameter , h=plate_thickness);
            translate([-hole_spacing/2,0,0])
            cylinder(d=hole_diameter, h=plate_thickness);
            if (counter_sink >0){
                $fn=40;
                translate([hole_spacing/2,0,  plate_thickness- letter_depth - counter_sink])
                cylinder(h=counter_sink, d1=hole_diameter, d2=hole_diameter + counter_sink*2);
                translate([-hole_spacing/2,0,plate_thickness - letter_depth - counter_sink])
                cylinder(h=counter_sink, d1=hole_diameter,   d2=hole_diameter + counter_sink*2);
            }
        }
    }

 plate();
 $fn=60;
 // Logo or first line of text
 translate([0,font_size_2*1 + height_adjust_1,plate_thickness - letter_depth]){
     linear_extrude(height = letter_depth){
        text(text_1, font = font_1, size = font_size_1+1, halign="center", spacing = letter_space);
     }
 }
// Text line 2
 translate([ 0,- font_size_2/2 + height_adjust_2, plate_thickness - letter_depth]) {
     linear_extrude(height = letter_depth){
        text(text_2, font = font_2, size = font_size_2, halign = "center", spacing = letter_space);
     }
 }
 // Text line 3
  translate([ 0,-font_size_3*2 + height_adjust_3, plate_thickness - letter_depth]) {
     linear_extrude(height = letter_depth){
        text(text_3, font = font_3, size = font_size_3, halign = "center",spacing = letter_space);
     }
 }
```


[User]
Hi! I'm looking to design a VESA mount adapter, specifically one that goes from VESA 75 to VESA 100. I've seen some existing designs, but I'd like one that is fully customizable and parametric.

Here are the key features I'd like to be able to control:

*   **Test Piece:** I'd like an option to generate a small test piece for calibration, instead of the full adapter. This should be a small corner section with mounts at both VESA 75 and VESA 100 spacing and a couple of supporting bars.
*   **Trapped Nuts:** I'd like to be able to choose whether the VESA 75 and VESA 100 mounting points should include trapped nuts (M4) or just plain holes for bolts.
*   **Strengthening:** I'd like options to include:
    *   An outer ring connecting all the mounts
    *   Center strengthening bars that go across the entire adapter.
    *   Oval cutouts in the outer ring to reduce material and weight.
*   **Dimensions:** All dimensions need to be configurable including:
    *   The overall height/thickness of the adapter plate.
    *   The diameter for the M4 thread hole.
    *   The diameter of the trapped M4 nut hole.
    *   The diameter of the M4 washer diameter (also the diameter of the mount area, when there is not a trapped nut)
    *   The depth of the counterbore/recess for the bolt head or nut.
    *    The thickness/chunkiness of the mount walls around the screw heads.
    *   The width and length of the oval cutouts.
    *   The gap between the oval cutouts
*   **Units:** I am expecting millimeters for the units.

I'm comfortable with using OpenSCAD for this, and I'd like a single .scad file containing all of the design. I'm not looking to use any external libraries for this design, so keep things vanilla. Can you help me generate this file?

[Assistant]
Vesa_Adaptor.scad:
```
/*********************************************************
 *                                VESA 75 to VESA 100 adaptor                                *
 *                             by Blair Thompson, AKA Justblair                              *
 *                                       www.justblair.co.uk                                         *
 *                                                                                *
 *********************************************************/

// ********************     Parametrics!      ********************

// Set test_piece variable to false for adaptor, true for calibration piece

test_piece=false;				// if true, a calibration piece will be created instead of the adaptor

// I designed this adaptor to mount a M350 ITX case to a VESA75 monitor, for this I used trapped nuts on the VESA100 mounts
// If you are using the adaptor for other purposes this may not suit you, adjust the variables below for different combinations

vesa_75_nut=false;  			// if true, vesa 75 mounts will include a trapped m4 nut, round hole if false
vesa_100_nut=true;			// if true, vesa 100 mounts will include a trapped m4 nut, round hole if false

// Depending on how strong you wish your adaptor to be, you can adjust here the style of adaptors

outer_ring_option=true;			// if true, outer ring will be included
center_piece_option=true;		// if true, center strengthening bars will be included
outer_ring_cutouts_option=true;	// if true, oval cutouts will be added to lighten the outer ring

// Variables, play around with these to calibrate and tweak the dimensions of the adaptor

plate_height=9;				// How high do you wish the plate to be

m4_thread_diameter=5.2;			// Adjust this to suit your printer
m4_nut_diameter=9.5;				// If you are using trapped nuts in the adaptor you can adjust this to suit your printer
m4_washer_diameter=10.2;			// Even if you are using trapped nuts throughout the adaptor, this also adjusts the mount diameters!
m4_head_depth=4;			// Adjust to the max height of either your bolt head or nut (whichever is the larger)

mount_chunkiness=2;			// how thick are the walls of the mount around the screw_head

cutout_width=10;				// If using an outer strengthening ring, this adjusts the width of the oval cutout
cutout_length=24;			// If using an outer strengthening ring, this adjusts the length of the oval cutout
cutout_gap=5;				// If using an outer strengthening ring, this adjusts the gap between the oval cutouts

// ********************     Here comes the code!     ********************

// Main bit of code
if(test_piece==false){
	translate([-50,-50,0]){
		difference(){
			union(){

				if (center_piece_option==true){
					center_piece();
				} else{
					mount_joins();
				} // end if
				if(outer_ring_option==true){
					outer_ring();
				} // end if
				vesa100();
				vesa75();
			} // end union
		vesa_holes();
		} // end difference
	} // end translate
}else{
	translate([-6.25,-6.25,0]){
		difference(){
			union(){
				mount();
				translate([12.5,12.5,0]) mount();
				rotate([0,0,-45])  translate([-2.5,0,0,])cube([5,20,plate_height-2], center=false);
				rotate([0,0,-45])  translate([-5,0,0,])cube([10,20,(plate_height-2)/2], center=false);
			}
		vesa_holes();
		}
	}
}
// end Main bit of code

// *******************     Here comes the modules!     *******************

module mount(){
		cylinder(r=m4_washer_diameter/2+mount_chunkiness, h=plate_height, $fn=60);
} // end module

module mount_holes(nut){
	translate([0,0,-10]) cylinder(r=m4_thread_diameter/2, h=plate_height+20, $fn=20);
	if (nut==true){
		translate([0,0,plate_height-m4_head_depth]) cylinder(r=m4_nut_diameter/2, h=6, $fn=6);
	} else {
		translate([0,0,plate_height-m4_head_depth]) cylinder(r=m4_washer_diameter/2, h=6, $fn=30);
	}  // end if
} // end module

module vesa75(){		// Adds the mounting posts for the 75mm spaced screws
	translate([12.5,12.5,0]) mount();
	translate([87.5,12.5,0]) mount();
	translate([12.5,87.5,0]) mount();
	translate([87.5,87.5,0]) mount();
}  // end module

module vesa100(){	// Adds the mounting posts for the 100mm spaced screws
	mount();
	translate([100,0,0]) mount();
	translate([0,100,0]) mount();
	translate([100,100,0]) mount();
}  // end module

module vesa_holes(){   	// Places all the mounting holes
	union(){
		translate([12.5,12.5,0]) mount_holes(vesa_75_nut);
		translate([87.5,12.5,0]) mount_holes(vesa_75_nut);
		translate([12.5,87.5,0]) mount_holes(vesa_75_nut);
		translate([87.5,87.5,0]) mount_holes(vesa_75_nut);
		rotate([0,180,0]){
			translate([-100,0,-plate_height]){
				mount_holes(vesa_100_nut);
				translate([100,0,0]) mount_holes(vesa_100_nut);
				translate([0,100,0]) mount_holes(vesa_100_nut);
				translate([100,100,0]) mount_holes(vesa_100_nut);
			} // end translate
		}  // end rotate
	}  // end union
}  // end module

module oval_cutout(){
	hull(){
		translate([0,0,0]) cylinder(r=cutout_width/2, h=plate_height+5, $fn=60, center=true);
		translate([cutout_length,0,0]) cylinder(r=cutout_width/2, h=plate_height+5, $fn=60, center=true);
	} //end hull
}  // end module

module cutout_side(){
	translate ([-(cutout_gap/2+cutout_width/2+cutout_length),0,0]) oval_cutout();
	translate ([cutout_gap/2+cutout_width/2,0,0]) oval_cutout();
}  // end module

module outer_ring(){
	difference(){
		translate ([-5+m4_washer_diameter/2,-5m4_washer_diameter/2,0]) minkowski(){
			cube([110-m4_washer_diameter,110-m4_washer_diameter,(plate_height-2)/2]);
			cylinder(r=m4_washer_diameter/2, h=1);
		}  // end translate/minkowski
		translate ([10,10,-1]) cube ([80,80,plate_height]);
		if (outer_ring_cutouts_option==true){
			translate ([50,5,0]) cutout_side();
			translate ([50,100-5,0]) cutout_side();
			translate ([100,0,0]) rotate ([0,0,90]) {
				translate ([50,5,0]) cutout_side();
				translate ([50,100-5,0]) cutout_side();
			} // end translate/rotate
		} // end if
	} // end difference
	difference(){
		translate ([10,10,0]) cube([80,80,plate_height-2]);
		translate ([15,15,-10]) cube ([70,70,plate_height+20]);
	} // end difference
} // end module

module center_piece(){
	rotate([0,0,-45])  translate([-2.5,0,0,])cube([5,142,plate_height-2], center=false);
	rotate([0,0,-45])  translate([-5,0,0,])cube([10,142,(plate_height-2)/2], center=false);
	translate([100,0,0]) rotate([0,0,45])  translate([-2.5,0,0,])cube([5,142,plate_height-2], center=false);
	translate([100,0,0]) rotate([0,0,45])  translate([-5,0,0,])cube([10,142,(plate_height-2)/2], center=false);
} // end module

module mount_joins(){
	difference(){
		center_piece();
		translate([11.5,11.5,-1]) cube([77,77,plate_height+5]);
	} // end difference
} //end module
```


[User]
Okay, I'm looking to design a customizable case for a USB flash drive, specifically something that fits inside a cryptex-style ring like the one on Thingiverse (thing:1196989). I've seen a basic version done, but it's pretty much hard-coded to one specific drive. I want something that's parametric so I can use whatever flash drive I have on hand.

Essentially, I need two main parts: a top shell and a bottom shell that fit together to enclose the flash drive. The shell design will be mostly cylindrical with some cutouts to house the flash drive circuit board, a space for the USB plug, and a small tab for a strap.

Here's what I need to be able to specify:
*   **Circuit Board Dimensions:** Width, Length, and Height of the circuit board itself (not the whole flash drive).
*   **USB Plug Offsets:**  How far the USB plug sticks out from the top and bottom of the circuit board.
*   **Strap Hole Diameter:** The size of the hole for a strap or keyring.
*   **Part Selection:** I'd like an option to generate just the top shell, just the bottom shell, or both.

The general shape should be a cylinder, split into the two shells that can slide together lengthwise, with cutouts based on the measurements specified. There will be teeth/grooves that interlock where the two halves meet. There will be a small latch and a strap hole at the very end of the combined shells.

I think the base cylinder would need an inner diameter of approximately 20mm and an outer diameter of about 28mm to interface with the existing cryptex ring. The length of the combined halves should be about 44mm.

I'd like to use OpenSCAD to design this, please. I'm familiar with specifying dimensions through parameters, so I need a file that makes use of that so I can tweak it to fit whatever flash drive I use.

[Assistant]
customizable_ring_for_USB_flash_drive_cryptex_v2.scad:
```
/***************************************************
*                                                  *
*        Designed by Freakazoid 08-25-2016         *
*                                                  *
*  made to work with "USB Flash Drive Cryptex v2"  *
*    http://www.thingiverse.com/thing:1196989      *
*                                                  *
***************************************************/

//Enter values here. give yourself some wiggle room, e.g. +0.2 ... +0.4

//Width of the circuit board
Circuit_Width = 15.8;
//Length of the circuit board
Circuit_Length = 40;
//Height of the circuit board.
Circuit_Height = 4;     //Don't make too tight! 4-5mm will probably work for you.
//Length offset of the USB plug on the top
Top_Offset = 10;
//Length offset of the USB plug on the bottom
Bottom_Offset = 2;
//Hole diameter for strap... obviously
Strap_Hole = 2;

// Which parts would you like to see?
part = "both"; // [top:Top shell only,bottom:Bottom shell only,both:Both shells]

//Press F5 for preview of the STL
//Press F6 for rendering (necessary for STL export)
//Select "File > Export > STL"

/********************** TOP VIEW **********************************

                     Circuit_Width
                      |---------|

                       _________   ___
                      |         |   |
                      |         |   |
                      |         |   |
                      |         |   |
                      |         |   |
                      |         |   | Circuit_Length
                      |         |   |
                      |         |   |
                      |         |   |
               ___    |  _____  |   |
    Top_Offset  |     | |     | |   |
               _|_    |_|     |_|  _|_
                        |[] []|
                        |_____|

********************* BOTTOM VIEW *********************************

                       _________
                      |         |
                      |         |
                      |         |
                      |         |
                      |         |
                      |         |
                      |         |
                      |         |
                      |         |
               ___    |  _____  |
 Bottom_Offset _|_    |_|     |_|
                        |     |
                        |_____|

********************* SIDE VIEW ***********************************/

//CONSTRUCTOR

if (part == "both"){
    Bottom_Shell();
    Top_Shell();
}

if (part == "bottom"){
    Bottom_Shell();
}

if (part == "top"){
    Top_Shell();
}

module Bottom_Shell(){
    translate([-(iDia+Part_Offset)/2,0,6])
        rotate([0,-90,90])
            difference(){Make_All();
                translate([0,-oDia/2,0])
                    cube([Width/2,oDia,Length+8]);
            }

}

module Top_Shell(){
translate([(iDia+Part_Offset)/2,0,6])
    rotate([0,90,-90])
        difference(){
            Make_All();
            translate([-Width/2,-oDia/2,0])
                cube([Width/2,oDia,Length+8]);
        }
}

//Global Variables
resolution = 150;
Length = 44;
Width = 12;
iDia = 20;
oDia = 28;
Part_Offset = 5;

module Make_All(){
    difference(){
        union(){
            Body();
            Teeth();
            Latch();
        }
        Cutout();
    }
}

module Tooth(th){
    intersection(){
        cylinder(d=oDia, h=th, $fn = resolution);
        translate([-Width/2,0,0])cube([Width,oDia/2,Length]);
    }
}

module Teeth(){
    Tooth(4.5);
    translate([0,0,10.5])Tooth(4);
    translate([0,0,20.5])Tooth(4);
    translate([0,0,30.5])Tooth(4);
    translate([0,0,40.5])Tooth(3.5);
}

module Body(){
    intersection(){
        cylinder(d=20, h=44, $fn = resolution);
        translate([-6,-10,0])cube([12,20,44]);
    }
}

module Cutout(){
    //Plug-Top
    PTx = 5.1;
    PTy = 12;
    PTz = Bottom_Offset;
    translate([-PTx/2,-PTy/2,0])cube([PTx,PTy,PTz]);
    //Plug-Bottom
    PBx = 0.55;
    PBy = 12;
    PBz = 10;
    PBx_Offset = Circuit_Height/2;
    translate([PBx_Offset,-PBy/2,0])cube([PBx,PBy,PBz]);
    //Circuit
    Cx = Circuit_Height;
    Cy = 15.8;
    Cz = 40;
    Cz_Offset = Bottom_Offset;
    translate([-Cx/2,-Cy/2,Cz_Offset])cube([Cx,Cy,Cz]);
}

module Latch(){
    translate([0,0,Length]){
        difference(){
            minkowski(){
                sphere(r=2, $fn=50);
                hull(){
                    translate([-4,0,4])rotate([0,90,0])cylinder(r=2, h=8, $fn=resolution/4);
                    translate([-4,-5,-4])cube([8,10,2]);
                }
            }
            translate([-10,-10,-10])cube([20,20,10]);
            translate([-25,0,4])rotate([0,90,0])cylinder(d=Strap_Hole, h=50, $fn=resolution/8);
        }
    }
}
```


[User]
I want to design some magnetic bases for tabletop gaming terrain, specifically for OpenForge tiles. I need the bases to be customizable in a few ways.

First, I need to be able to specify the size of the base in terms of the number of squares in the X and Y dimensions. The size of a square should also be configurable to allow for different scale systems (e.g., 25mm for Dwarven Forge, 25.4mm for OpenLOCK, 31.75mm for TrueTiles).

I also need to be able to specify whether the base is hollow or solid. If it's hollow, I'd like the option to include internal braces to add strength to the base.

I'll need to add edge supports that will allow for tiles to overhang the base. The size of this edge support should be configurable, and also I need to control whether or not the edge support is on the left, right, front, or back edge.

The bases should have holes for magnets, and I need to be able to configure the diameter of those holes for different magnets (I'm using 5mm buckyball magnets now).

Finally, I'd like to have the option to add holes for joining the tiles with either filament or paperclips. I need to be able to specify the diameters for both hole types.

Also, an option to have some "construction kit" style squares on each corner would be great.

I'm looking for a parametric design, so I can easily generate different base sizes and styles without needing to manually edit the design each time. Can you write some OpenSCAD code for this? I don't need anything super complex, just basic shapes like cubes and cylinders. No need to use any specialized libraries.

[Assistant]
magnetic_base.square.scad:
```
/* [Base Tile Size] */
x = 2; //[1,2,3,4,5,6]
y = 2; //[1,2,3,4,5,6]

/* [Hollow] */
// Should the base be hollow or closed?
hollow = "true"; // [false,true]
braces = 0;

/* [Edge Tile Support] */
// Size of edge tile addition, 9.2 is standard for openforge
edge = 12.5;
left_edge = "false"; // [false,true]
right_edge = "false"; // [false,true]
front_edge = "false"; // [false,true]
back_edge = "false"; // [false,true]

/* [Magnets] */
// Size of hole for magnet.  5.5 works well for 5mm buckyball style magnets.  0 to eliminate.
magnet_hole = 5.5;

/* [Joinery Holes] */
// Size of hole for Filament tile joining.
filament_wire_hole = 0.975; // 0:Off,0.975:1.75mm filament,1.6:3mm filament
// Size of hole for paperclip tile joining.
paperclip_wire_hole = 0; // 0:Off,0.65:20 Gauge,0.7:18 Gauge

/* [Construction Kit] */
ckit_squares = "false"; //[false,true]

/* [Square Basis] */
// What is the size in mm of a square?
square_basis = 25; // [25:Metric (Dwarven Forge/Hirstarts), 25.4:Imperial (Rampage/OpenLOCK/Dragonlock), 31.75:Imperial * 1.25 (Wyloch/TrueTiles)]

module wire_holes(x,y,square_basis,
        filament_wire_hole=0.975,paperclip_wire_hole=0,edge=12.5) {
    // center: 1  mm wire  18 gauge
    // crossed: .8  mm wire  20 gauge 7.4 small  9.3 large  20 gauge
    eoffset = -1 - edge;

    xlength = 2 + 2 * edge + square_basis * x;
    if (x > 1) {
        for ( i = [2 : x] ) {
            ipos = i * square_basis - square_basis;
            if (filament_wire_hole > 0) {
                translate([ipos-3,eoffset,6/2]) rotate([-90,0,0]) cylinder(ylength,filament_wire_hole,filament_wire_hole,$fn=50);
                translate([ipos+3,eoffset,6/2]) rotate([-90,0,0]) cylinder(ylength,filament_wire_hole,filament_wire_hole,$fn=50);
            }
            if (paperclip_wire_hole > 0.0) {
                // Large Loop
                translate([ipos+4.5,eoffset,6/2+1.5]) rotate([-90,0,0]) cylinder(ylength,paperclip_wire_hole,paperclip_wire_hole,$fn=50);
                translate([ipos-4.5,eoffset,6/2+1.5]) rotate([-90,0,0]) cylinder(ylength,paperclip_wire_hole,paperclip_wire_hole,$fn=50);
                translate([ipos+4.5,eoffset,6/2-1]) rotate([-90,0,0]) cylinder(ylength,paperclip_wire_hole,paperclip_wire_hole,$fn=50);
                translate([ipos-4.5,eoffset,6/2-1]) rotate([-90,0,0]) cylinder(ylength,paperclip_wire_hole,paperclip_wire_hole,$fn=50);
                // Small Loop
                translate([ipos+2.4,eoffset,6/2+1.5]) rotate([-90,0,0]) cylinder(ylength,paperclip_wire_hole,paperclip_wire_hole,$fn=50);
                translate([ipos-2.4,eoffset,6/2+1.5]) rotate([-90,0,0]) cylinder(ylength,paperclip_wire_hole,paperclip_wire_hole,$fn=50);
            }
        }
    }

    ylength = 2 + 2 * edge + square_basis * y;
    if (y > 1) {
        for ( i = [2 : y] ) {
            ipos = i*square_basis-square_basis;
            if (filament_wire_hole > 0) {
                translate([eoffset,ipos-3,6/2]) rotate([0,90,0]) cylinder(xlength,filament_wire_hole,filament_wire_hole,$fn=50);
                translate([eoffset,ipos+3,6/2]) rotate([0,90,0]) cylinder(xlength,filament_wire_hole,filament_wire_hole,$fn=50);
            }
            if (paperclip_wire_hole > 0.0) {
                // Large Loop
                translate([eoffset,ipos+4.5,6/2+1.5]) rotate([0,90,0]) cylinder(xlength,paperclip_wire_hole,paperclip_wire_hole,$fn=50);
                translate([eoffset,ipos-4.5,6/2+1.5]) rotate([0,90,0]) cylinder(xlength,paperclip_wire_hole,paperclip_wire_hole,$fn=50);
                translate([eoffset,ipos+4.5,6/2-1]) rotate([0,90,0]) cylinder(xlength,paperclip_wire_hole,paperclip_wire_hole,$fn=50);
                translate([eoffset,ipos-4.5,6/2-1]) rotate([0,90,0]) cylinder(xlength,paperclip_wire_hole,paperclip_wire_hole,$fn=50);
                // Small Loop
                translate([eoffset,ipos+2.4,6/2+1.5]) rotate([0,90,0]) cylinder(xlength,paperclip_wire_hole,paperclip_wire_hole,$fn=50);
                translate([eoffset,ipos-2.4,6/2+1.5]) rotate([0,90,0]) cylinder(xlength,paperclip_wire_hole,paperclip_wire_hole,$fn=50);
            }
        }
    }
}

module magnet_ejection_holes(x,y,square_basis,magnet_hole,
        left_edge="false",right_edge="false",front_edge="false",back_edge="false",edge=12.5) {
    if (magnet_hole > 0) {
        l = left_edge == "true"?edge:0;
        r = right_edge == "true"?edge:0;
        f = front_edge == "true"?edge:0;
        b = back_edge == "true"?edge:0;
        for ( i = [1 : x] ) {
            translate([i*square_basis-square_basis/2,3.6-f,-1]) cylinder(10,.9,.9,$fn=50);
            translate([i*square_basis-square_basis/2,y*square_basis-3.6+b,-1]) cylinder(10,.9,.9,$fn=50);
        }
        for ( i = [1 : y] ) {
            translate([3.6-l,i*square_basis-square_basis/2,-1]) cylinder(10,.9,.9,$fn=50);
            translate([x*square_basis-3.6+r,i*square_basis-square_basis/2,-1]) cylinder(10,.9,.9,$fn=50);
        }
    }
}

module fs_magnet_holder(magnet_hole=5.5) {
    // 5mm buckyballs
    if(magnet_hole > 0) {
        difference() {
            cylinder(6,3.7,3.7, $fn=100);
            translate([0,0,-1]) cylinder(8,magnet_hole/2,magnet_hole/2, $fn=100);
        }
    }
}

module fs_magnet_base(x,y,square_basis,
        left_edge="false",right_edge="false",front_edge="false",back_edge="false",edge=12.5,
        magnet_hole=5.5,filament_wire_hole=0.975,paperclip_wire_hole=0,
        ckit_squares="false",hollow="true",braces=0) {
    l = left_edge == "true"?edge:0;
    r = right_edge == "true"?edge:0;
    f = front_edge == "true"?edge:0;
    b = back_edge == "true"?edge:0;
    ckit = ckit_squares == "true"?true:false;
    hollow_interior = hollow == "true"?true:false;

    difference() {
        union() {
            translate([-l,-f,0]) difference() {
                cube([square_basis*x+l+r,square_basis*y+f+b,6]);
                translate([1,1,-1]) cube([square_basis*x-2+l+r,square_basis*y-2+f+b,8]);
            }
            translate([6.4-l,6.4-f,0]) difference() {
                cube([square_basis*x-12.8+l+r,square_basis*y-12.8+f+b,6]);
                if(hollow_interior) {
                    translate([1,1,-1]) cube([square_basis*x-14.8+l+r,square_basis*y-14.8+f+b,8]);
                }
            }
            translate([-l,-f,0]) difference() {
                cube([square_basis*x+l+r,square_basis*y+f+b,0.5]);
                translate([7,7,-1]) cube([square_basis*x-14+l+r,square_basis*y-14+f+b,8]);
            }
            for ( i = [1 : x] ) {
                translate([i*square_basis-square_basis/2,3.7-f,0]) fs_magnet_holder(magnet_hole);
                translate([i*square_basis-square_basis/2,y*square_basis-3.7+b,0]) fs_magnet_holder(magnet_hole);
            }
            for ( i = [1 : y] ) {
                translate([3.7-l,i*square_basis-square_basis/2,0]) fs_magnet_holder(magnet_hole);
                translate([x*square_basis-3.7+r,i*square_basis-square_basis/2,0]) fs_magnet_holder(magnet_hole);
            }
            if (x > 1) {
                for ( i = [2 : x] ) {
                    translate([i*square_basis-square_basis-6,-f,0]) cube([12,7,6]);
                    translate([i*square_basis-square_basis-6,y*square_basis-7+b,0]) cube([12,7,6]);
                }
            }
            if (y > 1) {
                for ( i = [2 : y] ) {
                    translate([-l,i*square_basis-square_basis-6,0]) cube([7,12,6]);
                    translate([x*square_basis-7+r,i*square_basis-square_basis-6,0]) cube([7,12,6]);
                }
            }
            translate([-l,-f,0]) cube([7,7,6]);
            translate([x*square_basis-7+r,-f,0]) cube([7,7,6]);
            translate([-l,y*square_basis-7+b,0]) cube([7,7,6]);
            translate([x*square_basis-7+r,y*square_basis-7+b,0])translate([]) cube([7,7,6]);
            if(ckit) {
                translate([-l+1+6,-f+1+6,0]) cube([6,6,6]);
                translate([x*square_basis-7+r-6,-f+1+6,0]) cube([6,6,6]);
                translate([-l+1+6,y*square_basis-7+b-6,0]) cube([6,6,6]);
                translate([x*square_basis-7+r-6,y*square_basis-7+b-6,0]) cube([6,6,6]);
            }
        }
        wire_holes(
            x, y, square_basis,
            filament_wire_hole=filament_wire_hole,
            paperclip_wire_hole=paperclip_wire_hole);
        magnet_ejection_holes(
            x,y,square_basis,
            magnet_hole,
            left_edge=left_edge,
            right_edge=right_edge,
            front_edge=front_edge,
            back_edge=back_edge,
            edge=12.5);
    }
    if(braces > 0) {
        if (y > 1) {
            for ( i = [1 : (y-1)]) {
                translate([1-l,i*square_basis-braces/2,0]) cube([x*square_basis-2+l+r,braces,6]);
            }
        }
        if (x > 1) {
            for ( i = [1 : (x-1)]) {
                translate([i*square_basis-braces/2,1-f,0]) cube([braces,y*square_basis-2+f+b,6]);
            }
        }
    }
}

color("Sienna") fs_magnet_base(x,y,square_basis,
    left_edge,right_edge,front_edge,back_edge,edge,magnet_hole,
    filament_wire_hole=filament_wire_hole,paperclip_wire_hole=paperclip_wire_hole,ckit_squares=ckit_squares,hollow=hollow,braces=braces);

```


[User]
Hi, I'm looking to create a parametric box design in OpenSCAD, and I need some help getting started. I've got a pretty good idea of what I want, but I'm struggling to put it all together.

Essentially, I need a box with rounded corners and a recessed lid that fits snugly. The box itself should be hollow and have mounting standoffs inside for securing a PCB or similar. I'd like this all to be parametric, so I can easily adjust the length, width, height, corner radius, and standoff dimensions.

Here's a more detailed breakdown:

*   **Box:** The main body should be a hollow box with rounded corners. I'd like to be able to define the overall length, width, and height, as well as the corner radius.
*   **Hollow:** The box needs to be hollow, with a consistent wall thickness.
*   **Lid:** The lid should also have rounded corners and be designed to fit into the recessed opening of the box. I need the lid to sit flush with the top edge of the box. The lid should be slightly smaller than the box, but I don't have specific numbers yet; this needs to be parametric. I’d like a small lip around the edge that forms the recess. I'd like the lid to be slightly smaller than the box such that it fits snugly.
*   **Standoffs:** There should be four cylindrical standoffs located near each corner, inside the box. I need to define the height and diameter of the standoffs. I'd like two different cylinder diameters, one on top of the other for extra stability/mounting.
*   **Parametric:** I need all of these dimensions (length, width, height, corner radius, standoff height/diameter, wall thickness) to be easily configurable using variables.

I'd like to have this in a few files to keep things organized: one for the main box, and one for the lid, but I'm flexible if that is hard to accomplish.

Also, while I’m not using any libraries for this, I’m open to using libraries if they’d simplify the process. Thanks in advance.

[Assistant]
roundbox.scad:
```
// upgrade resolution
$fn = 200;

// dimensions
length = 50;
width = 95;
height = 20;
cornerRadius = 10;

// 4 standoffs
standoff();
translate([width-2*cornerRadius,0,0])
    standoff();
    translate([0,length-2*cornerRadius,0])
        standoff();
        translate([width-2*cornerRadius,length-2*cornerRadius,0])
            standoff();

// rounded hollow box
difference() {
    roundedBox(length, width, height, cornerRadius);
    translate([1,1,1]) {
        roundedBox(length-2, width-2, height-1, cornerRadius);
    }
}

// lid with rim
translate([0, length*2, 0]){
    mirror([0,1,0]) {
        roundedBox(length, width, 1, cornerRadius);
        difference() {
            translate([1,1,0]) {
                roundedBox(length-2,width-2,4,cornerRadius);
            }
            translate([2,2,0]) {
                roundedBox(length-4,width-4,4,cornerRadius);
            }
        }
    }
}

// functions
module roundedBox(length, width, height, radius)
{
    dRadius = 2*radius;
    minkowski() {
        cube(size=[width-dRadius,length-dRadius, height]);
        cylinder(r=radius, h=0.01);
    }
}

module standoff()
{
    cylinder(h = 14, r = 3);
    cylinder(h = 8, r = 5);
}

```
box_only.scad:
```
// upgrade resolution
$fn = 200;

// dimensions
length = 50;
width = 95;
height = 20;
cornerRadius = 10;

// 4 standoffs
standoff();
translate([width-2*cornerRadius,0,0])
    standoff();
    translate([0,length-2*cornerRadius,0])
        standoff();
        translate([width-2*cornerRadius,length-2*cornerRadius,0])
            standoff();

// rounded hollow box
difference() {
    roundedBox(length, width, height, cornerRadius);
    translate([1,1,1]) {
        roundedBox(length-2, width-2, height-1, cornerRadius);
    }
}

// functions
module roundedBox(length, width, height, radius)
{
    dRadius = 2*radius;
    minkowski() {
        cube(size=[width-dRadius,length-dRadius, height]);
        cylinder(r=radius, h=0.01);
    }
}

module standoff()
{
    cylinder(h = 14, r = 3);
    cylinder(h = 8, r = 5);
}

```
lid_only.scad:
```
// upgrade resolution
$fn = 200;

// dimensions
length = 50;
width = 95;
height = 20;
cornerRadius = 10;

// lid with rim
mirror([0,1,0]) {
    roundedBox(length, width, 1, cornerRadius);
    difference() {
        translate([1,1,0]) {
            roundedBox(length-2,width-2,4,cornerRadius);
        }
        translate([2,2,0]) {
            roundedBox(length-4,width-4,4,cornerRadius);
        }
    }
}

// functions
module roundedBox(length, width, height, radius)
{
    dRadius = 2*radius;
    minkowski() {
        cube(size=[width-dRadius,length-dRadius, height]);
        cylinder(r=radius, h=0.01);
    }
}

```


[User]
I need a customizable LCD mount for my Prusa i3, specifically designed to attach to an acrylic or metal sheet like on my Sunhokey printer. The current design I'm using (from Thingiverse) is good, but I'd like more control over the dimensions.  I want to be able to specify the thickness of the sheet it mounts to, the thickness of the mount itself, and the tilt angle. Basically, exactly the same functionality as the design described above.

The LCD is a RepRap Discount Smart Controller, which has a rectangular PCB with mounting holes on the sides. I'd like to be able to toggle whether or not screw and nut holes are included. The mount will have an arc shape where it attaches to the LCD panel. Also, there's an SD card slot on the side of the LCD screen, and I'd like that to have a cutout too.

I need an OpenSCAD design that allows me to set these parameters:

*   `Sheet_thickness`: Thickness of the sheet the mount attaches to.
*   `Mount_thickness`: Thickness of the mount itself.
*   `Tilt_angle`: The angle the LCD tilts relative to the sheet.
*   `Screw_nut`: A boolean (or similar) option to include or exclude screw and nut holes.

I'd also like the design to calculate the necessary dimensions for the arc, screw positions, and SD card slot cutout from the pcb size, screw hole locations etc.

Could you provide an OpenSCAD file (or files if that makes sense) that does this, using parameters that I can adjust easily in the Customizer? Also, could you make the code reasonably well-commented so I can understand how things are calculated? And make sure the tolerances are included so everything fits together nicely.

I would also like to see the design in a modular form, so that is easy to read and modify if needed.

I'm not using any particular libraries in my current approach (I've just been using primitives), but if you think there's a library that would make the design better or easier to manage, feel free to use it.

[Assistant]
customizable_tilt_lcd_mount.scad:
```
//Customizable tilt LCD mount
//by Khairulmizam Samsudin, Sept 2016
//xource@gmail.com
//"customizable_tilt_lcd_mount" is licenced under Creative Commons :
//Attribution-NonCommercial-ShareAlike 4.0 International (CC BY-NC-SA 4.0)
//http://creativecommons.org/licenses/by-nc-sa/4.0/

//UPDATES:
//2/9/16 - Added option to disable screw and nut hole
//1/9/16 - Released

/* [Options] */
// preview[view:south, tilt:top]
// Sheet plate thickness
Sheet_thickness=6; // [3:10]
// Mount plate thickness
Mount_thickness=5; // [5:10]
// LCD tilt angle
Tilt_angle=45; // [0:90]
// Add screw and nut hole
Screw_nut=1; // [0:No,1:Yes]

/* [Hidden] */

thick=Mount_thickness;
angle=Tilt_angle;
snO=Screw_nut;
//config
epsilon=0.1;
$fn=40;
//lcd mount plate
pcbT=1.8;
pcbW=56;
screwR=3/2;
screwOffset=1;
nutT=3;
acrylicT=Sheet_thickness;
//sd card slot
sdL=5;
sdW=35;

//calculated
screwY=pcbW/2-screwR-screwOffset;
arcW=pcbW-5*2;
arcH=pcbW*1.1;
p1R=radius_of_arc(arcW,arcH);
p1T=thick;

translate([p1R*1.5,0,0]) mount();
translate([-p1R*1.5,0,0]) mount(sd=1);

module mount(sd=0) {
    difference() {
        rotate([0,0,-angle]) difference() {
            cylinder(r=p1R,h=thick,center=true);
            //front cutout
            translate([-p1R/2-(arcH-p1R)+12+epsilon,0,0])  cube([p1R,arcW,p1T+epsilon],center=true);
            translate([-p1R/2-(arcH-p1R)+5+epsilon,0,0])  cube([p1R,p1R*2,p1T+epsilon],center=true);
            //cutout for pcb, screw and nut
            translate([-arcH+p1R+12,0,0])  psn();

            //sd card
            if (sd) {
                translate([sdL/2+pcbT/2+p1R-arcH+12,sdW/2-pcbW/2+5,0]) cube([sdL+epsilon,sdW,thick+epsilon],center=true);
            }
        }
        //slit
        translate ([acrylicT/2,-p1R,0]) cube([acrylicT,p1R*2,thick+epsilon],center=true);
        }
}
//lcd pcb
module psn() {
        cube([pcbT,pcbW,p1T*2],center=true);
        if (snO) {
            translate([6,screwY,0]) rotate([0,-90,0]) sn();
            translate([6,-screwY,0]) rotate([0,-90,0]) sn();
        }
}

//screw and nut
module sn() {
    translate([0,0,5]) cylinder(r=screwR,h=30,center=true);
    translate([0,0,-nutT]) cube([thick*2,5.4,nutT],center=true);
}
//radius of an arc
function radius_of_arc (w,h) =h/2+(pow(w,2)/(8*h));

```


[User]
I'd like a customizable design for a miniature base with text wrapped around it. The base itself should have a few options for its shape and style.

Specifically, I want to be able to choose from three base types: "Cool," "Basic," and "Plain." The "Cool" base should have a more complex, stepped design, where the base starts with a cylinder, then narrows and transitions into another cylinder that eventually connects to the text cylinder. The "Basic" base should just be a simple truncated cone, and the "Plain" should be a basic cylinder. All the bases should be able to have their base shapes altered using a user-specified number of sides, from 3 to 100. I also need to be able to control the base diameter, overall height, and the slant/taper of the sides. I’d like to be able to stretch the base along the x-axis.

The text should be placed wrapped around the top part of the base, on a cylinder. I need to control what the text says, the font, the text's diameter relative to the base, its z-position, height, boldness, spacing between characters, and the overall scale of the text. The fonts should be loaded from dxf files. I need to have a default and also be able to choose from a few other default fonts.  I need to control the overall color of the base/text.

The design should use the `write.scad` library to handle the text, specifically the `writecylinder` module, and should allow the user to control the `face` parameter on writecylinder, and the `ccw` parameter. Also ensure it works with the text from the fonts listed.

I'd like all of these parameters to be accessible via the OpenSCAD customizer. Could you generate the necessary .scad files for this? I’m hoping it works, because a user was having some difficulty with the original model it was based off of, but I’m planning to use the customizer, so hopefully it works.

[Assistant]
MiniatureBaseWtext.scad:
```
use <write/Write.scad>
/* [Base] */

base_type = 1; //	[1:Cool, 2:Basic, 3:Plain]
base_shape = 30; //	[30:Low-res Circle, 100: Hi-res Circle, 5:Pentagon, 6:Hexagon, 8:Octagon, 4:Square, 3:Triangle]

diameter = 20; // [5:100]
height = 3; // [1:35]
slant = 95; // [50:100]

// Percentage:
stretch = 100; // [50:200]

//('Cool' base only)
inner_circle_ratio = 40; // [10:80]

/* [Text] */
text = "personalize";
text_font = "Letters.dxf";//[write/Letters.dxf,write/orbitron.dxf,write/knewave.dxf,write.braille.dxf,write/Blackrose.dxf]
text_diam_ratio = 85; // [30:100]
text_z_adj = 0; // [-9:9]
text_height = 1; // [0:10]
text_bold = 0; // [0:500]
text_spacing = 100; // [80:200]
text_scale = 100; // [25:500]

/* [Color] */
red = 136; // [0:255]
green = 118; // [0:255]
blue = 155; // [0:255]

color([red/255, green/255, blue/255])

union(){
    scale([text_scale/100, text_scale/100, 1])
    writecylinder(text, [0,0,height + text_z_adj], radius=diameter * (text_diam_ratio/100) * (100/text_scale), space = text_spacing/100, height = 0, t = text_height, bold = text_bold/100, face="top", ccw=true, font = text_font);

    scale([stretch/100, 1, 1]){
        if (base_type == 1){
            // Cool base

            cyl1_height = height * (1-inner_circle_ratio/100);
            cylinder(cyl1_height, diameter, diameter * slant/100, $fn=base_shape);

            cyl2_diameter = diameter  * slant/100 * .95;
            cyl2_height = height - cyl1_height;

            translate([0, 0, cyl1_height]){
                // Cylinder 2
                //color("green")
                cylinder(cyl2_height, cyl2_diameter, cyl2_diameter * slant/100, $fn=base_shape);

                // Cylinder 3

                cylinder(cyl2_height*.5, diameter * slant/100, cyl2_diameter, $fn=base_shape);
            }
        } else if (base_type == 2){
            // Okay Base
            cylinder(height, diameter, diameter * slant/100, $fn=base_shape);
        } else if (base_type == 3){
            // Boring Circle Base

            cylinder(height, diameter, diameter, $fn=base_shape);
        }
    }
}

```


[User]
Hey, I'm trying to create a flower model using OpenSCAD, and I'd like it to have a few specific characteristics. The flower should be built from petals arranged in golden spirals, and then those spirals should be replicated around a central axis to form the complete flower.

Specifically, I'd like these parameters:

*   **`spirals`**: This integer determines how many of the golden spirals will be in the final flower. A larger number of spirals makes the flower denser.
*   **`petals_per_spiral`**:  This integer controls the number of petals in each golden spiral, which effectively determines the overall size of the flower.

Each petal needs to be a curved, 3D shape that looks somewhat like a section of a sphere, with a "stem" that is sort of elongated. I was thinking each petal should be created by intersecting a spherical shell with a hull-extruded shape built from several circles. The circles should be able to be moved around to make sure the petal looks good, and the thickness of the petal should be a parameter.

The petals should then be arranged using a golden spiral pattern, which I know can be generated using the Fibonacci sequence. The location and rotation of the petals should be determined by Fibonacci numbers.

Finally, all these golden spirals need to be copied around a center axis so they create the flower.

I'd also like a small sphere and a sort of "cup" shape at the base of the flower to finish it up.

Could you create an OpenSCAD file that can generate this flower based on those parameters and structure? I don't need anything fancy or any special libraries like MCAD, just something that uses the core OpenSCAD features.

[Assistant]
lotus_like_flower.scad:
```
spirals = 10;
petals_per_spiral = 4;

function fibonacci(nth) =
    nth == 0 || nth == 1 ? nth : (
	    fibonacci(nth - 1) + fibonacci(nth - 2)
	);

module petal(radius, thickness) {
    $fn = 24;
	translate([-radius * 1.5, 0, radius * 2]) rotate([90, 120, 90]) intersection() {
		difference() {
			sphere(radius * 2);
			sphere(radius * 2 - thickness);
		}

		linear_extrude(radius * 5) hull() {
			translate([radius * 1.25, 0, 0]) circle(radius / 3);
			translate([-1.1 * radius, 0, 0]) circle(radius / 3);
			circle(radius * 0.85);
		}
	}
}

module golden_spiral_for_pentals(from, to) {
    if(from <= to) {
		f1 = fibonacci(from);
		f2 = fibonacci(from + 1);

		offset = f1 - f2;

		translate([0, 0, offset * 1.8]) rotate([-5, 40, 10])
		    petal(-offset, -offset / 6);

		translate([0, offset, 0]) rotate(90)
			golden_spiral_for_pentals(from + 1, to);

	}
}

module lotus_like_flower(spirals, petals_per_spiral) {
    $fn = 24;

    step_angle = 360 / spirals;
	for(i = [0:spirals - 1]) {
		rotate(step_angle * i)
		    golden_spiral_for_pentals(1, petals_per_spiral);
	}

	fib_diff = fibonacci(petals_per_spiral) - fibonacci(petals_per_spiral - 1);

	translate([0, 0, -fib_diff]) scale([1, 1, fib_diff]) sphere(1);
	translate([0, 0, -fib_diff * 2.25]) difference() {
		sphere(fib_diff);
		translate([-fib_diff, -fib_diff, -fib_diff * 2]) cube(fib_diff * 2);
	}
}

lotus_like_flower(spirals, petals_per_spiral + 1);

```


[User]
Hey, I'm looking to generate a parametric box with dividers, kind of like a stamp box. I need it to be customizable in terms of dimensions, number of dividers, and some tolerances.

Here's what I'm thinking:

**General Box Parameters:**

*   I need to be able to choose whether or not to generate a box and/or lid independently. Sometimes I might just need a lid, for example.
*   I'd like to specify the *height* of the items that will be going into the holes (let's call this `itemHeight`). This will help determine overall box height.
*   I need to set the *size* of each hole (let's call this `holeSize`) and an additional `holeTolerence` that will add some wiggle room for getting items in and out easily.
*   I want a `lidWidthTolerence` and `lidLengthTolerence` so the lid isn't too tight.
*   The number of rows and columns should be configurable via `rows` and `columns` parameters.
*   I want to be able to control the thickness of the outside lid walls with a `lidWallWidth` parameter and the box walls using a `wallWidth` parameter.
*   There should be a `dividerWidth` parameter so I can adjust the thickness of the dividers.
*   I want the box height to be a *percentage* of `itemHeight` via a `boxHeightPercentage` parameter and for the divider height to be a *percentage* of the box height via `dividerHeightPercentage`. This would let me make insets for the dividers or even have items stick up higher than the box.

**Output Requirements:**

*   The design should generate both a box with holes and a lid, with the option to generate either or both.
*   The holes should be arranged in a grid defined by the rows and columns.
*   The overall size of the box (width and length) should be automatically calculated based on the `holeSize`, `dividerWidth`, and number of rows and columns with the `wallWidth` included.
*   The lid should fit over the box with consideration given to `lidWidthTolerence` and `lidLengthTolerence`, taking into account the wall thickness for each as well.
*   I need to use MCAD library functions where applicable.
* The resulting design should be parametric.

Could you create a parametric OpenSCAD file(s) for this?

[Assistant]
MetalStampBox.scad:
```
/*
* Parametric Divider Box
*
*   Author: Bryan Smith - bryan.smith.dev@gmail.com
*   Created Date: 8/24/16
*   Updated Date: 9/10/16
*   Version: 1.3
*
*
*  Creative Commons Attribution-NonCommercial-ShareAlike 3.0 Unported License
*       (https://creativecommons.org/licenses/by-nc-sa/3.0/legalcode)
*/

///////////////////////////////////////////////////////////////////
//Customize the box. Sizes are in millimeters
///////////////////////////////////////////////////////////////////

//Do you want a lid to be generated?
generateLid=1; //[1:true,0:false]

//Do you want the box to be generated?
generateBox=1; //[1:true,0:false]

//What is the height of the item to be placed in the holes in mm?
itemHeight=65;

//What is the size of each hole in mm?
holeSize=7.0;

//Adds to the hole size so you can get items back out of the holes. Don't want it too tight. Can help account for shrinking too. I recomend around 0.7mm)
holeTolerence=0.7;

//Adds spacing to the width fit of the lid to help account for shrinking, printer accuracy, and different materials. (My printer FlashForge Creator Pro can use a tolerence of 0 for flexible material like TPU, but needs to add some space for rigid materials like ABS so that the lid will actually go down on the box.)
lidWidthTolerence=0.3;

//Adds spacing to the length fit of the lid to help account for shrinking, printer accuracy, and different materials. (My printer FlashForge Creator Pro can use a tolerence of 0 for flexible material like TPU, but needs to add some space for rigid materials like ABS so that the lid will actually go down on the box.)
lidLengthTolerence=0.3;

//How many rows of holes?
rows=3;

//How many columns of holes?
columns=9;

//The thickness of the outside lid walls.
lidWallWidth=1.6;

//The thickness of the outside box walls.
wallWidth=1.6;

//The thickness of the dividers.
dividerWidth=2;

//Box height as compared to item height. Allows the items to stick up higher than the box to help ease getting them out.
boxHeightPercentage=0.75; //[0.05:0.01:1.0]

//Divider height as compared to box height. This allows inset dividers to save material.
dividerHeightPercentage=0.75; //[0:0.01:1.0]

///////////////////////////////////////////////////////////////////
///////////////////////////////////////////////////////////////////

//Calculated Box Sizes. Do not change.
boxWidth=max(((dividerWidth*(columns-1))+(((holeSize+holeTolerence))*columns)+(wallWidth*2)),1);
boxLength=max(((dividerWidth*(rows-1))+(((holeSize+holeTolerence))*rows)+(wallWidth*2)),1);
boxFloorThickness=max(wallWidth,0.1);
boxHeight=max(itemHeight*boxHeightPercentage,1);
dividerHeight=min(boxHeight*dividerHeightPercentage,boxHeight);
lidHeight=(itemHeight-boxHeight)+20;
lidWidth=boxWidth+lidWidthTolerence+(lidWallWidth*2);
lidLength=boxLength+lidLengthTolerence+(lidWallWidth*2);

//Calculate the hole offsets
function holes(x) = ((holeSize+holeTolerence) * x)+(dividerWidth*x);

///////////////////////////////////////////////////////////////////
//Box
///////////////////////////////////////////////////////////////////
if (generateBox)
    difference(){
        difference(){
            cube([boxWidth,boxLength,boxHeight],false);
                for (r = [ 0 : 1 : rows-1 ])
                    for (c = [ 0 : 1 : columns-1 ])
                        translate([holes(c)+wallWidth, holes(r)+wallWidth, boxFloorThickness])
                        cube([(holeSize+holeTolerence),(holeSize+holeTolerence),itemHeight], center = false);
        }
        translate([wallWidth,wallWidth,min(dividerHeight,boxHeight+boxFloorThickness)])
        cube([boxWidth-(wallWidth*2),boxLength-(wallWidth*2),boxHeight*2],false);
    }

///////////////////////////////////////////////////////////////////
//Lid
///////////////////////////////////////////////////////////////////
if (generateLid)
    difference(){
        translate([-lidWallWidth+(boxWidth)+10,-lidWallWidth,0])
        cube([lidWidth,lidLength,lidHeight],false);

        translate([(boxWidth)+10,0,0])translate([0,0,lidWallWidth])
        cube([boxWidth+ lidLengthTolerence,boxLength+lidWidthTolerence,itemHeight*2],false);
    }
```