diff --git a/.gitignore b/.gitignore
index 1d8e4a7..d0adc12 100644
--- a/.gitignore
+++ b/.gitignore
@@ -1,2 +1,16 @@
+# Generated models
+OpenSCAD/output/
+output/
 *.stl
-*.step
\ No newline at end of file
+*.step
+*.3mf
+*.png
+
+# Python
+__pycache__/
+*.py[cod]
+*$py.class
+
+# OS
+.DS_Store
+Thumbs.db
\ No newline at end of file
diff --git a/OpenSCAD/Cullenect.scad b/OpenSCAD/Cullenect.scad
index 1f3140e..47c4e57 100644
--- a/OpenSCAD/Cullenect.scad
+++ b/OpenSCAD/Cullenect.scad
@@ -1,6 +1,6 @@
 /* [General Settings] */
 //I want to generate...
-Select_Output=0; // [0:Label, 01:Label Spacer, 10:Socket Test Fit, 11:Socket Negative Volume, 20:Vertical Socket Test Fit, 21:Vertical Socket Negative]
+Select_Output = 0; // [0:Label, 01:Label Spacer, 10:Socket Test Fit, 11:Socket Negative Volume, 20:Vertical Socket Test Fit, 21:Vertical Socket Negative]
 //model = "" // ["Cullenect label","Socket test fit","Socket Negative Volume"]
 // Width in gridfinity units
 label_width = 1; // .1
@@ -18,14 +18,14 @@ Text1 = "Cullenect";
 // Text Alignment
 Text1_Align = "left"; // ["left","center","right"]
 // Font Size
-Text1_Font_Size = 5;  // .1
+Text1_Font_Size = 5; // .1
 // Font Family
 Text1_Font = "Open Sans"; // [Open Sans, Open Sans Condensed, Ubuntu, Montserrat]
 
 // Font Style
 Text1_Font_Style = "Regular"; // [Regular,Black,Bold,ExtraBol,ExtraLight,Light,Medium,SemiBold,Thin,Italic,Black Italic,Bold Italic,ExtraBold Italic,ExtraLight Italic,Light Italic,Medium Italic,SemiBold Italic,Thin Italic]
 // Adjust X and Y Position
-Text1_XY = [0,0]; // .1
+Text1_XY = [0, 0]; // .1
 /* [Label Text 2] */
 
 // Label Text
@@ -33,204 +33,207 @@ Text2 = "";
 // Text Alignment
 Text2_Align = "right"; // ["left","center","right"]
 // Font Size
-Text2_Font_Size = 6;  // .1
+Text2_Font_Size = 6; // .1
 // Font Family
 Text2_Font = "Open Sans"; // [Open Sans, Open Sans Condensed, Ubuntu, Montserrat]
 
 // Font Style
 Text2_Font_Style = "Regular"; // [Regular,Black,Bold,ExtraBol,ExtraLight,Light,Medium,SemiBold,Thin,Italic,Black Italic,Bold Italic,ExtraBold Italic,ExtraLight Italic,Light Italic,Medium Italic,SemiBold Italic,Thin Italic]
 // Adjust X and Y Position
-Text2_XY = [0,0]; // .1
+Text2_XY = [0, 0]; // .1
 
 /* [Fastener Icon] */
 Show_Fastener = false;
-Fastener_Head="socket"; // [none:None, socket:Socket, countersunk:Countersunk, roundh:Round, pan:Pan]
-Fastener_Shaft="machine"; // [none:None, machine:Machine, tapping:Tapping]
-Fastener_Threads="full"; // [none:None, full:Full, partial:Partial]
-Fastener_Driver="phillips"; // [none:None, slot:Slot, phillips:Phillips, phillips_slot:Phillips Slot, phillips_square:Phillips Square, torx:Torx/Star, hex:Hex, square:Robertson/Square, triangle:Triangle]
+Fastener_Head = "socket"; // [none:None, socket:Socket, countersunk:Countersunk, roundh:Round, pan:Pan]
+Fastener_Shaft = "machine"; // [none:None, machine:Machine, tapping:Tapping]
+Fastener_Threads = "full"; // [none:None, full:Full, partial:Partial]
+Fastener_Driver = "phillips"; // [none:None, slot:Slot, phillips:Phillips, phillips_slot:Phillips Slot, phillips_square:Phillips Square, torx:Torx/Star, hex:Hex, square:Robertson/Square, triangle:Triangle]
 // Toggle flanged head
-Fastener_Head_Flange=false;
+Fastener_Head_Flange = false;
 // Toggle securty nub in center of driver
-Fastener_Driver_Security=false;
+Fastener_Driver_Security = false;
+// Select View Type
+Fastener_View = "side"; // [side:Side, top:Top]
 
 /* [Hardware Icon] */
-Select_Hardware="none"; // [none:None, washer:Washer, washer_locking:Locking Washer, threaded_insert:Threaded Insert, nut:Nut, nut_square:Square Nut, nut_nylon:Nylon Lock Nut, tnut_1:T-Nut Side, tnut_2:T-Nut Top, magnet:Magnet, crimp_ring_open:Crimp Ring - Open, crimp_ring_closed:Crimp Ring - Closed, crimp_fork_open:Crimp Fork - Open, crimp_fork_closed:Crimp Fork - Closed, crimp_spade_open:Crimp Spade - Open, crimp_spade_closed:Crimp Spade - Closed, crimp_receptacle_open:Crimp Receptacle - Open, crimp_receptacle_closed:Crimp Receptacle - Closed]
+Select_Hardware = "none"; // [none:None, washer:Washer, washer_locking:Locking Washer, threaded_insert:Threaded Insert, nut:Nut, nut_square:Square Nut, nut_nylon:Nylon Lock Nut, tnut_1:T-Nut Side, tnut_2:T-Nut Top, magnet:Magnet, crimp_ring_open:Crimp Ring - Open, crimp_ring_closed:Crimp Ring - Closed, crimp_fork_open:Crimp Fork - Open, crimp_fork_closed:Crimp Fork - Closed, crimp_spade_open:Crimp Spade - Open, crimp_spade_closed:Crimp Spade - Closed, crimp_receptacle_open:Crimp Receptacle - Open, crimp_receptacle_closed:Crimp Receptacle - Closed]
 
 /* [Advanced] */
 
 //Ajust fitment for X and Y dimensions
-offset_xy = [0,0]; // .1
+offset_xy = [0, 0]; // .1
 
 // Use gridfinity U
 gridfinity = true;
 
 // Width of label in mm
-labelXmm = 36.0;  // .1
+labelXmm = 36.0; // .1
 
 // Height of label in mm
-labelYmm = 11.0;  // .1
+labelYmm = 11.0; // .1
 
 // Thickness of label in mm
-labelZmm = 1.2;  // .1
+labelZmm = 1.2; // .1
 
 layer = 0.2; // Layer height of text and icons (careful)
 
 // Increase or decrease resolution of certain details
-$fs = 0.01;  // .01
+$fs = 0.01; // .01
 // Increase or decrease resolution of certain details
 $fa = 1;
 
 /* [Hidden] */
 gridfinityX = 42; // Grid size for gridfinity units.
-labelX = (gridfinity) ? ((label_width * gridfinityX) - 6) + offset_xy.x : labelXmm;
+labelX = (gridfinity) ? ( (label_width * gridfinityX) - 6) + offset_xy.x : labelXmm;
 labelY = (gridfinity) ? 11 + offset_xy.y : labelYmm;
 labelZ = (gridfinity) ? 1.2 : labelZmm;
 latchX = 0.2; // Width of socket on label walls
 latchZ = 0.6; // Z-height of wall socket
 fudge = 0.0001; // Fix render for exact booleans
 
-
 // Tool for rounded cubes
- module RoundedCube(size, radius) {
-	offsetfix = radius * 2;
-    width = size[0] - offsetfix;
-    height = size[1] - offsetfix;
-    depth = size[2];
-	
-    translate([radius, radius, 0]) linear_extrude(height = depth) offset(r = radius) square([width, height]);
+module RoundedCube(size, radius) {
+  offsetfix = radius * 2;
+  width = size[0] - offsetfix;
+  height = size[1] - offsetfix;
+  depth = size[2];
+
+  translate([radius, radius, 0]) linear_extrude(height=depth) offset(r=radius) square([width, height]);
 }
 
 // V1 Label with new wall sockets
 // Will only generate V1 label XY with V2 label Z
 module cullenect_base_v1(offset_xy = offset_xy) {
 
-	// Variables
-	labelX_v1 = 36 + offset_xy.x;
-	labelY_v1 = 11 + offset_xy.y;
-	$midX1 = 4.695 + (offset_xy.x / 2);
-	$midX2 = 10.18;
-	$midlatchX = 1.95;
-	$bottomX1 = 5.395 + (offset_xy.x / 2);
-	$bottomX2 = 11.18;
-	$bottomlatchX = 0.95;
-	
-	// Base below socket
-	// Base #1
-		color("Silver")
-			RoundedCube([$bottomX1, labelY_v1, 0.2], 0.5);
-	
-	// Base #2
-	translate([$bottomX1 + $bottomlatchX,0,0])
-		color("Silver")
-			RoundedCube([$bottomX2, labelY_v1, 0.2], 0.5);
-	// Base #3
-	translate([$bottomX1 + $bottomlatchX + $bottomX2 + $bottomlatchX,0,0])
-		color("Silver")
-			RoundedCube([$bottomX2, labelY_v1, 0.2], 0.5);
-	// Base #4
-	translate([$bottomX1 + $bottomlatchX + $bottomX2 + $bottomlatchX + $bottomlatchX + $bottomX2,0,0])
-		color("Silver")
-			RoundedCube([$bottomX1, labelY_v1, 0.2], 0.5);
-
-	// Middle along socket
-	// Middle #1
-	translate([latchX,latchX,0.2])
-		color("Gray")
-			RoundedCube([$midX1, labelY_v1 - (latchX * 2), 0.6], 0.5);
-	// Middle #2
-	translate([latchX + $midX1 + $midlatchX,latchX,0.2])
-		color("Gray")
-			RoundedCube([$midX2, labelY_v1 - (latchX * 2), 0.6], 0.5);
-	// Middle #3
-	translate([latchX + $midX1 + $midlatchX + $midX2 + $midlatchX,latchX,0.2])
-		color("Gray")
-			RoundedCube([$midX2, labelY_v1 - (latchX * 2), 0.6], 0.5);
-	// Middle #4
-	translate([latchX + $midX1 + $midlatchX + $midX2 + $midlatchX + $midX2 + $midlatchX,latchX,0.2])
-		color("Gray")
-			RoundedCube([$midX1, labelY_v1 - (latchX * 2), 0.6], 0.5);
-	
-	// Top above socket
-	translate([0,0,0.8])
-		color("Silver")
-			RoundedCube([labelX_v1, labelY_v1, 0.4], 0.5);
+  // Variables
+  labelX_v1 = 36 + offset_xy.x;
+  labelY_v1 = 11 + offset_xy.y;
+  $midX1 = 4.695 + (offset_xy.x / 2);
+  $midX2 = 10.18;
+  $midlatchX = 1.95;
+  $bottomX1 = 5.395 + (offset_xy.x / 2);
+  $bottomX2 = 11.18;
+  $bottomlatchX = 0.95;
+
+  // Base below socket
+  // Base #1
+  color("Silver")
+    RoundedCube([$bottomX1, labelY_v1, 0.2], 0.5);
+
+  // Base #2
+  translate([$bottomX1 + $bottomlatchX, 0, 0])
+    color("Silver")
+      RoundedCube([$bottomX2, labelY_v1, 0.2], 0.5);
+  // Base #3
+  translate([$bottomX1 + $bottomlatchX + $bottomX2 + $bottomlatchX, 0, 0])
+    color("Silver")
+      RoundedCube([$bottomX2, labelY_v1, 0.2], 0.5);
+  // Base #4
+  translate([$bottomX1 + $bottomlatchX + $bottomX2 + $bottomlatchX + $bottomlatchX + $bottomX2, 0, 0])
+    color("Silver")
+      RoundedCube([$bottomX1, labelY_v1, 0.2], 0.5);
+
+  // Middle along socket
+  // Middle #1
+  translate([latchX, latchX, 0.2])
+    color("Gray")
+      RoundedCube([$midX1, labelY_v1 - (latchX * 2), 0.6], 0.5);
+  // Middle #2
+  translate([latchX + $midX1 + $midlatchX, latchX, 0.2])
+    color("Gray")
+      RoundedCube([$midX2, labelY_v1 - (latchX * 2), 0.6], 0.5);
+  // Middle #3
+  translate([latchX + $midX1 + $midlatchX + $midX2 + $midlatchX, latchX, 0.2])
+    color("Gray")
+      RoundedCube([$midX2, labelY_v1 - (latchX * 2), 0.6], 0.5);
+  // Middle #4
+  translate([latchX + $midX1 + $midlatchX + $midX2 + $midlatchX + $midX2 + $midlatchX, latchX, 0.2])
+    color("Gray")
+      RoundedCube([$midX1, labelY_v1 - (latchX * 2), 0.6], 0.5);
+
+  // Top above socket
+  translate([0, 0, 0.8])
+    color("Silver")
+      RoundedCube([labelX_v1, labelY_v1, 0.4], 0.5);
 }
 
 // V2 Label without backward compatibility
 module cullenect_base_v2(
-            offset_xy = offset_xy,
-            labelX = labelX,
-            labelY = labelY,
-            labelZ = labelZ,
-            latchX = latchX,
-        ){
-    
-	// Label base below socket
-	color("Silver")
-	RoundedCube([labelX, labelY, 0.2], 0.5);
-	
-	// Label middle within socket
-	translate([latchX,latchX,0])
-	color("Gray")
-	RoundedCube([labelX - (latchX * 2), labelY - (latchX * 2), labelZ - 0.2], 0.5);
-	
-	// Label top above socket
-	translate([0,0,0.2 + latchZ])
-	color("Silver")
-	RoundedCube([labelX, labelY, (labelZ - 0.2) - latchZ], 0.5);
+  offset_xy = offset_xy,
+  labelX = labelX,
+  labelY = labelY,
+  labelZ = labelZ,
+  latchX = latchX,
+) {
+
+  // Label base below socket
+  color("Silver")
+    RoundedCube([labelX, labelY, 0.2], 0.5);
+
+  // Label middle within socket
+  translate([latchX, latchX, 0])
+    color("Gray")
+      RoundedCube([labelX - (latchX * 2), labelY - (latchX * 2), labelZ - 0.2], 0.5);
+
+  // Label top above socket
+  translate([0, 0, 0.2 + latchZ])
+    color("Silver")
+      RoundedCube([labelX, labelY, (labelZ - 0.2) - latchZ], 0.5);
 }
 
 // Module to generate the correct label type
 module cullenect_base() {
-	if (backward_compatible && gridfinity && (label_width == 1)){
-		cullenect_base_v1();
-	} else {
-		cullenect_base_v2();
-	}
+  if (backward_compatible && gridfinity && (label_width == 1)) {
+    cullenect_base_v1();
+  } else {
+    cullenect_base_v2();
+  }
 }
 
 // Calculate Text1 Position and font
-Text1_posX = (Text1_Align == "left") ? 0 + Text1_XY.x : 
-            (Text1_Align == "center") ? (offset_xy.x + labelX / 2) + Text1_XY.x : 
-            (Text1_Align == "right") ? labelX + Text1_XY.x + offset_xy.x : 0; // Fallback to 0
+Text1_posX =
+  (Text1_Align == "left") ? 0 + Text1_XY.x
+  : (Text1_Align == "center") ? (offset_xy.x + labelX / 2) + Text1_XY.x
+  : (Text1_Align == "right") ? labelX + Text1_XY.x + offset_xy.x : 0; // Fallback to 0
 Text1_posY = (labelY / 2) + Text1_XY.y;
 Text1_posZ = labelZ;
 Text1_pos = [Text1_posX, Text1_posY, Text1_posZ];
 
 // Calculate Text2 Position and font
-Text2_posX = (Text2_Align == "left") ? 0 + Text2_XY.x : 
-            (Text2_Align == "center") ? (labelX / 2) + Text2_XY.x : 
-            (Text2_Align == "right") ? labelX + Text2_XY.x : 0; // Fallback to 0
+Text2_posX =
+  (Text2_Align == "left") ? 0 + Text2_XY.x
+  : (Text2_Align == "center") ? (labelX / 2) + Text2_XY.x
+  : (Text2_Align == "right") ? labelX + Text2_XY.x : 0; // Fallback to 0
 Text2_posY = (labelY / 2) + Text2_XY.y;
 Text2_posZ = labelZ;
 Text2_pos = [Text2_posX, Text2_posY, Text2_posZ];
 
 // Generate Label Text #1
 module label_text1(
-            Text1 = Text1,
-            Text1_Font = Text1_Font,
-            Text1_Font_Style = Text1_Font_Style,
-            Text1_Font_Size = Text1_Font_Size,
-            Text1_Align = Text1_Align,
-            Text1Pos = Text1_pos
-        ) {
-	translate(Text1Pos)
-		linear_extrude(layer + fudge)
-			text(Text1, Text1_Font_Size, font = str(Text1_Font, ":", Text1_Font_Style), halign = Text1_Align, valign = "center");
+  Text1 = Text1,
+  Text1_Font = Text1_Font,
+  Text1_Font_Style = Text1_Font_Style,
+  Text1_Font_Size = Text1_Font_Size,
+  Text1_Align = Text1_Align,
+  Text1Pos = Text1_pos
+) {
+  translate(Text1Pos)
+    linear_extrude(layer + fudge)
+      text(Text1, Text1_Font_Size, font=str(Text1_Font, ":", Text1_Font_Style), halign=Text1_Align, valign="center");
 }
 
 // Generate Label Text #2
 module label_text2(
-            Text2 = Text2,
-            Text2_Font = Text2_Font,
-            Text2_Font_Style = Text2_Font_Style,
-            Text2_Font_Size = Text2_Font_Size,
-            Text2_Align = Text2_Align,
-            Text2Pos = Text2_pos
-        ) {
-	translate(Text2Pos)
-		linear_extrude(layer + fudge)
-			text(Text2, Text2_Font_Size, font = str(Text2_Font, ":", Text2_Font_Style), halign = Text2_Align, valign = "center");
+  Text2 = Text2,
+  Text2_Font = Text2_Font,
+  Text2_Font_Style = Text2_Font_Style,
+  Text2_Font_Size = Text2_Font_Size,
+  Text2_Align = Text2_Align,
+  Text2Pos = Text2_pos
+) {
+  translate(Text2Pos)
+    linear_extrude(layer + fudge)
+      text(Text2, Text2_Font_Size, font=str(Text2_Font, ":", Text2_Font_Style), halign=Text2_Align, valign="center");
 }
 
 // Socket and Socket Negative Variables
@@ -241,39 +244,38 @@ socketY = labelY + socket_offset;
 ribZ = 0.4;
 // Generate socket
 module cullenect_socket(
-            socket_offset = socket_offset,
-            socket_walls = socket_walls,
-            socketX = socketX,
-            socketY = socketY,
-            ribZ = ribZ,
-        ){
-	union(){
-		difference(){
-			translate([-socket_walls,-socket_walls,-1])
-                color("Silver")
-                    RoundedCube([labelX + (socket_walls * 2), socketY + (socket_walls * 2), labelZ + 1], 0.2);
-			
-			color("Gray")
-				RoundedCube([socketX, socketY, labelZ + 1], 0.5);
-		}
-		translate([0,0,0.2])
-            color("Silver")
-                cube([socketX, latchX, ribZ]);
-		translate([0, socketY - latchX,0.2])
-            color("Silver")
-                cube([socketX, latchX, ribZ]);
-	}
+  socket_offset = socket_offset,
+  socket_walls = socket_walls,
+  socketX = socketX,
+  socketY = socketY,
+  ribZ = ribZ,
+) {
+  union() {
+    difference() {
+      translate([-socket_walls, -socket_walls, -1])
+        color("Silver")
+          RoundedCube([labelX + (socket_walls * 2), socketY + (socket_walls * 2), labelZ + 1], 0.2);
+
+      color("Gray")
+        RoundedCube([socketX, socketY, labelZ + 1], 0.5);
+    }
+    translate([0, 0, 0.2])
+      color("Silver")
+        cube([socketX, latchX, ribZ]);
+    translate([0, socketY - latchX, 0.2])
+      color("Silver")
+        cube([socketX, latchX, ribZ]);
+  }
 }
 
 // Generate negative volume of socket
-module cullenect_socket_negative(){
+module cullenect_socket_negative() {
 
-	difference(){
-        color("Gray")
-			RoundedCube([socketX, socketY, labelZ], 0.5);
-        cullenect_socket();   
-    }
-        
+  difference() {
+    color("Gray")
+      RoundedCube([socketX, socketY, labelZ], 0.5);
+    cullenect_socket();
+  }
 }
 
 // Vertical socket variables
@@ -283,48 +285,46 @@ vsocketY = labelZ - latchZ - vsocketOffset; // define starting pos and depth
 vsocketZ = socketY + 2; // Vertical height with 45 degree ceiling
 vsocketDepth = (vsocketY * 2) + latchZ; // Total depth of vsocket
 
-
 // Generate vertical socket
 // Unlike the h-socket and label this starts with the negative volume due to easier rounded edges
 // Rounded edges are needed for the vertical printing of the ribbing
 module cullenect_vertical_socket_negative(
-            vsocketOffset = vsocketOffset,
-            vsocketX = vsocketX,
-            vsocketY = vsocketY,
-            vsocketZ = vsocketZ,
-            vsocketDepth = vsocketDepth,
-        ) {
-	difference(){
-		// Create base 
-		union(){
-			cube([vsocketX, (vsocketY / 2), vsocketZ]);// front of socket, no rounding
-			RoundedCube([vsocketX, vsocketY + 0.001, vsocketZ], 0.1);// front of socket, rounded inside around rib
-			translate([0,vsocketY,0])
-				cube([vsocketX,latchZ,vsocketZ]); // Middle of socket, to be cut away later by rounded cube for rib
-			translate([-vsocketOffset,vsocketY + latchZ,0])
-				RoundedCube([vsocketX + (vsocketOffset * 2), vsocketY, vsocketZ], 0.1);
-		}
-		// Remove rounded ribs
-		translate([-1,vsocketY,0])
-			RoundedCube([latchX + 1, latchZ, vsocketZ], 0.1);
-		translate([vsocketX - latchX,vsocketY,0])
-			RoundedCube([latchX + 1, latchZ, vsocketZ], 0.1);
-		// remove 45 degree top
-		translate([-(latchX + 1),(vsocketY * 2) + latchZ,socketY])
-            rotate([45,0,0])
-                cube([2 + vsocketX + latchX * 2, latchX + 3, (vsocketY * 8)], false);
-		
-	}
-    
+  vsocketOffset = vsocketOffset,
+  vsocketX = vsocketX,
+  vsocketY = vsocketY,
+  vsocketZ = vsocketZ,
+  vsocketDepth = vsocketDepth,
+) {
+  difference() {
+    // Create base 
+    union() {
+      cube([vsocketX, (vsocketY / 2), vsocketZ]); // front of socket, no rounding
+      RoundedCube([vsocketX, vsocketY + 0.001, vsocketZ], 0.1); // front of socket, rounded inside around rib
+      translate([0, vsocketY, 0])
+        cube([vsocketX, latchZ, vsocketZ]);
+      // Middle of socket, to be cut away later by rounded cube for rib
+      translate([-vsocketOffset, vsocketY + latchZ, 0])
+        RoundedCube([vsocketX + (vsocketOffset * 2), vsocketY, vsocketZ], 0.1);
+    }
+    // Remove rounded ribs
+    translate([-1, vsocketY, 0])
+      RoundedCube([latchX + 1, latchZ, vsocketZ], 0.1);
+    translate([vsocketX - latchX, vsocketY, 0])
+      RoundedCube([latchX + 1, latchZ, vsocketZ], 0.1);
+    // remove 45 degree top
+    translate([-(latchX + 1), (vsocketY * 2) + latchZ, socketY])
+      rotate([45, 0, 0])
+        cube([2 + vsocketX + latchX * 2, latchX + 3, (vsocketY * 8)], false);
+  }
 }
 
 // Generate vsocket test fitment
 module cullenect_vertical_socket() {
-    difference(){
-        translate([-(socket_walls+vsocketOffset),0,-socket_walls])
-            cube([labelX + (vsocketOffset * 2) +(socket_walls * 2),vsocketDepth + 1,vsocketZ + (socket_walls * 1.5)]);
-        cullenect_vertical_socket_negative();
-    }
+  difference() {
+    translate([-(socket_walls + vsocketOffset), 0, -socket_walls])
+      cube([labelX + (vsocketOffset * 2) + (socket_walls * 2), vsocketDepth + 1, vsocketZ + (socket_walls * 1.5)]);
+    cullenect_vertical_socket_negative();
+  }
 }
 
 // Fastener icon variables
@@ -333,225 +333,231 @@ driverWidth = 1; // Width of "most" driver shapes inside icon
 driverLength = 5.333; // Length of most driver shapes inside icon
 headY = driverX * 1.666666666666667; // Size of fastener heads
 shaftX = headY * 0.856; // Length of fastener shaft
-shaftY = headY/2;
+shaftY = headY / 2;
 
 // Generate Driver Icon
 module cullenect_driver(
-            driver="none",
-            driverX = driverX,
-            driverWidth = driverWidth,
-            driverLength = driverLength,
-            headY = headY,
-            shaftX = shaftX,
-            shaftY = shaftY,
-        ) {
-    
-    // Blank
-    module blank(){
-        cylinder(h=layer, d=driverX, center=true, $fa=1);
-    }
-    
-    // Slot
-    module slot(driverLength=driverLength){
-        cube([driverLength,driverWidth,layer], true);
-    }
-    
-    // Phillips
-    module phillips(){
-        union(){
-            slot();
-            rotate([0,0,90])slot();
-        }
-    }
-    
-    // Phillips Slot
-    module phillips_slot(){
-        union(){
-            slot();
-            rotate([0,0,90])slot(driverLength=driverLength-2);
-        }
-    }
-    
-    // Phillips Square
-    module phillips_square(){
-        union(){
-            slot();
-            rotate([0,0,90])slot();
-            rotate([0,0,45])cube([driverWidth*2.8,driverWidth*2.8,layer],true);
-        }
-    }
-    
-    // Torx
-    module torx(){
-        module torx_cyl() {cylinder(h=layer, d=driverWidth, center=true, $fa=1);};
-        module torx_long(length=driverLength-driverWidth,cube=true){
-            // Connecting cube
-            if (cube==true){cube([length, driverWidth, layer], true);}
-            // Rounded ends
-            translate([(length) / 2,0,0])torx_cyl();
-            // Rounded ends again but oposite side (copy/paste)
-            rotate([0,0,180])translate([(length) / 2,0,0])torx_cyl();
-        }
-        
-        // Torx: Bring everything together
-        difference(){
-            union(){
-                torx_long();
-                rotate([0,0,120])torx_long();
-                rotate([0,0,60])torx_long();
-                cylinder(h=layer, d=driverLength*0.69, center=true, $fa=1); // joining cylinder in the middle
-            }
-            rotate([0,0,30])torx_long(length=(driverLength-driverWidth)*0.92,cube=false);
-            rotate([0,0,90])torx_long(length=(driverLength-driverWidth)*0.92,cube=false);
-            rotate([0,0,-30])torx_long(length=(driverLength-driverWidth)*0.92,cube=false);
-        } 
-    }
-    
-    // Hex
-    module hex(){
-        cylinder(h=layer, d=driverX-1, $fn=6, center=true);
-    }
-    
-    // Square
-    module square(){
-        rotate([0,0,45])
-            cylinder(h=layer, d=driverX, $fn=4, center=true);
-    }
-    
-    // Triangle
-    module triangle(){
-        rotate([0,0,-30])
-            cylinder(h=layer, d=driverX, $fn=3, center=true);
-    }
-    
-    // Security
-    module security(){
-        cylinder(h=layer, d=driverX/4, $fa=1, center=true);
-    }
-    
-    // Output
-    if (driver == "blank")blank();
-    if (driver == "slot")slot();
-    if (driver == "phillips")phillips();
-    if (driver == "phillips_slot")phillips_slot();
-    if (driver == "phillips_square")phillips_square();
-    if (driver == "torx")torx();
-    if (driver == "hex")hex();
-    if (driver == "square")square();
-    if (driver == "triangle")triangle();
-    if (driver == "security")security();
+  driver = "none",
+  driverX = driverX,
+  driverWidth = driverWidth,
+  driverLength = driverLength,
+  headY = headY,
+  shaftX = shaftX,
+  shaftY = shaftY,
+) {
+
+  // Blank
+  module blank() {
+    cylinder(h=layer, d=driverX, center=true, $fa=1);
+  }
+
+  // Slot
+  module slot(driverLength = driverLength) {
+    cube([driverLength, driverWidth, layer], true);
+  }
+
+  // Phillips
+  module phillips() {
+    union() {
+      slot();
+      rotate([0, 0, 90]) slot();
+    }
+  }
+
+  // Phillips Slot
+  module phillips_slot() {
+    union() {
+      slot();
+      rotate([0, 0, 90]) slot(driverLength=driverLength - 2);
+    }
+  }
+
+  // Phillips Square
+  module phillips_square() {
+    union() {
+      slot();
+      rotate([0, 0, 90]) slot();
+      rotate([0, 0, 45]) cube([driverWidth * 2.8, driverWidth * 2.8, layer], true);
+    }
+  }
+
+  // Torx
+  module torx() {
+    module torx_cyl() { cylinder(h=layer, d=driverWidth, center=true, $fa=1); }; module torx_long(length = driverLength - driverWidth, cube = true) {
+      // Connecting cube
+      if (cube == true) { cube([length, driverWidth, layer], true); }
+      // Rounded ends
+      translate([(length) / 2, 0, 0]) torx_cyl();
+      // Rounded ends again but oposite side (copy/paste)
+      rotate([0, 0, 180]) translate([(length) / 2, 0, 0]) torx_cyl();
+    }
+
+    // Torx: Bring everything together
+    difference() {
+      union() {
+        torx_long();
+        rotate([0, 0, 120]) torx_long();
+        rotate([0, 0, 60]) torx_long();
+        cylinder(h=layer, d=driverLength * 0.69, center=true, $fa=1); // joining cylinder in the middle
+      }
+      rotate([0, 0, 30]) torx_long(length=(driverLength - driverWidth) * 0.92, cube=false);
+      rotate([0, 0, 90]) torx_long(length=(driverLength - driverWidth) * 0.92, cube=false);
+      rotate([0, 0, -30]) torx_long(length=(driverLength - driverWidth) * 0.92, cube=false);
+    }
+  }
+
+  // Hex
+  module hex() {
+    cylinder(h=layer, d=driverX - 1, $fn=6, center=true);
+  }
+
+  // Square
+  module square() {
+    rotate([0, 0, 45])
+      cylinder(h=layer, d=driverX, $fn=4, center=true);
+  }
+
+  // Triangle
+  module triangle() {
+    rotate([0, 0, -30])
+      cylinder(h=layer, d=driverX, $fn=3, center=true);
+  }
+
+  // Security
+  module security() {
+    cylinder(h=layer, d=driverX / 4, $fa=1, center=true);
+  }
+
+  // Output
+  if (driver == "blank") blank();
+  if (driver == "slot") slot();
+  if (driver == "phillips") phillips();
+  if (driver == "phillips_slot") phillips_slot();
+  if (driver == "phillips_square") phillips_square();
+  if (driver == "torx") torx();
+  if (driver == "hex") hex();
+  if (driver == "square") square();
+  if (driver == "triangle") triangle();
+  if (driver == "security") security();
 }
 
 // Generate Screw Head
 module cullenect_head(
-            head = "socket",
-            flange = false,
-        ){
-    
-    // Socket
-    module socket(){
-        cube([driverX,headY,layer], true);
-    }
-    
-    // Countersunk
-    module countersunk(){
-        translate([0,0,-layer/2])
-            linear_extrude(layer)
-                polygon(points=[[-driverX/2,headY/4],[driverX/2,headY/2],[driverX/2,-headY/2],[-driverX/2,-headY/4]]);
-    }
-    
-    // Round
-    module roundh(){
-        difference(){
-            translate([-driverX/3,0,0])
-                union(){
-                    cylinder(h=layer, d=headY, $fa=1, center=true);
-                    translate([-driverX/4,0,0])
-                        cube([driverX/2,headY,layer], true);
-                }
-            translate([-driverX,0,0])
-                cube([driverX,headY,layer], true);
-        }
-    }
-    
-    // Pan
-    module pan(){
-        union(){
-            translate([-driverX/2,-headY/2,-layer/2])
-                RoundedCube([driverX, headY, layer], 2.0);
-            translate([-driverX/4,0,0])
-                cube([driverX/2,headY,layer], true);
+  head = "socket",
+  flange = false,
+  view = "side"
+) {
+
+  // Top/Drive View
+  module top_view() {
+    cylinder(h=layer, d=headY, center=true);
+  }
+
+  // Socket
+  module socket() {
+    cube([driverX, headY, layer], true);
+  }
+
+  // Countersunk
+  module countersunk() {
+    translate([0, 0, -layer / 2])
+      linear_extrude(layer)
+        polygon(points=[[-driverX / 2, headY / 4], [driverX / 2, headY / 2], [driverX / 2, -headY / 2], [-driverX / 2, -headY / 4]]);
+  }
+
+  // Round
+  module roundh() {
+    difference() {
+      translate([-driverX / 3, 0, 0])
+        union() {
+          cylinder(h=layer, d=headY, $fa=1, center=true);
+          translate([-driverX / 4, 0, 0])
+            cube([driverX / 2, headY, layer], true);
         }
-    }
-    
-    // Flange
-    flangeX = driverX / 4;
-    module flange(){
-        translate([-(driverX/2) + (flangeX/2),0,0])
-        cube([flangeX,labelY,layer], true);
-    }
-    
-    // Output
-    if (head == "socket")socket();
-    if (head == "countersunk")countersunk();
-    if (head == "roundh")roundh();
-    if (head == "pan")pan();
-    if (flange == true && head != "countersunk")flange();
+      translate([-driverX, 0, 0])
+        cube([driverX, headY, layer], true);
+    }
+  }
+
+  // Pan
+  module pan() {
+    union() {
+      translate([-driverX / 2, -headY / 2, -layer / 2])
+        RoundedCube([driverX, headY, layer], 2.0);
+      translate([-driverX / 4, 0, 0])
+        cube([driverX / 2, headY, layer], true);
+    }
+  }
+
+  // Flange
+  flangeX = driverX / 4;
+  module flange() {
+    translate([-(driverX / 2) + (flangeX / 2), 0, 0])
+      cube([flangeX, labelY, layer], true);
+  }
+
+  // Output
+  if (view == "top") top_view();
+  if (view == "side") {
+    if (head == "socket") socket();
+    if (head == "countersunk") countersunk();
+    if (head == "roundh") roundh();
+    if (head == "pan") pan();
+    if (flange == true && head != "countersunk") flange();
+  }
 }
 
 // Generate Fastener Shaft
-module cullenect_shaft(shaft="machine",threads="full"){
-    
-    // Machine
-    module machine(){
-        translate([-(driverX/2 + shaftX/2),0,0])
-            cube([shaftX,shaftY,layer], true);
-    }
-    
-    // Tapping
-    module tapping(){
-        difference(){
-            machine();
-            translate([-(driverX/2 + shaftX),shaftY/2,0])
-                rotate([0,0,45])
-                    cube([shaftY*0.7,shaftY*0.7,layer], true);
-            translate([-(driverX/2 + shaftX),-shaftY/2,0])
-                rotate([0,0,45])
-                    cube([shaftY*0.7,shaftY*0.7,layer], true);
-        }
-    }
-    
-    // Threads
-    function get_thread_num() = 
-        (threads == "full" && shaft == "machine") ? 6 :
-        (threads == "partial" && shaft == "machine") ? 3 :
-        (threads == "full" && shaft == "tapping") ? 4 :
-        (threads == "partial" && shaft == "tapping") ? 2 :
-        6;
-    thread_num = get_thread_num();
-    threadX = shaftY/5;
-    thread_step = (threadX*1.41421);
-    thread_pos_full = driverX/2 + thread_step/2;
-    thread_pos_partial = driverX/2 + thread_step/2 + (thread_num * thread_step);
-    thread_pos_x = (threads=="partial") ? thread_pos_partial : thread_pos_full;
-    
-    module threads(num=thread_num,pos=thread_pos_x){
-        translate([-pos,0,0])
-            for(i = [0:1:num-1]){
-                translate([-(i*thread_step),shaftY/2,0])
-                    rotate([0,0,45])
-                        cube([threadX,threadX,layer], true);
-                translate([-(i*thread_step),-shaftY/2,0])
-                    rotate([0,0,45])
-                        cube([threadX,threadX,layer], true);
-            }
-    }
-    
-    // Output
-    if (shaft == "machine")machine();
-    if (shaft == "tapping")tapping();
-    if ((threads!="none" && shaft!="none"))threads();
-    
+module cullenect_shaft(shaft = "machine", threads = "full") {
+
+  // Machine
+  module machine() {
+    translate([-(driverX / 2 + shaftX / 2), 0, 0])
+      cube([shaftX, shaftY, layer], true);
+  }
+
+  // Tapping
+  module tapping() {
+    difference() {
+      machine();
+      translate([-(driverX / 2 + shaftX), shaftY / 2, 0])
+        rotate([0, 0, 45])
+          cube([shaftY * 0.7, shaftY * 0.7, layer], true);
+      translate([-(driverX / 2 + shaftX), -shaftY / 2, 0])
+        rotate([0, 0, 45])
+          cube([shaftY * 0.7, shaftY * 0.7, layer], true);
+    }
+  }
+
+  // Threads
+  function get_thread_num() =
+    (threads == "full" && shaft == "machine") ? 6
+    : (threads == "partial" && shaft == "machine") ? 3
+    : (threads == "full" && shaft == "tapping") ? 4
+    : (threads == "partial" && shaft == "tapping") ? 2
+    : 6;
+  thread_num = get_thread_num();
+  threadX = shaftY / 5;
+  thread_step = (threadX * 1.41421);
+  thread_pos_full = driverX / 2 + thread_step / 2;
+  thread_pos_partial = driverX / 2 + thread_step / 2 + (thread_num * thread_step);
+  thread_pos_x = (threads == "partial") ? thread_pos_partial : thread_pos_full;
+
+  module threads(num = thread_num, pos = thread_pos_x) {
+    translate([-pos, 0, 0])for (i = [0:1:num - 1]) {
+      translate([-(i * thread_step), shaftY / 2, 0])
+        rotate([0, 0, 45])
+          cube([threadX, threadX, layer], true);
+      translate([-(i * thread_step), -shaftY / 2, 0])
+        rotate([0, 0, 45])
+          cube([threadX, threadX, layer], true);
+    }
+  }
+
+  // Output
+  if (shaft == "machine") machine();
+  if (shaft == "tapping") tapping();
+  if ( (threads != "none" && shaft != "none") ) threads();
 }
 
 // Hardware Variables
@@ -561,398 +567,417 @@ hardNegative = hardX * 0.6;
 // Generate Hardware
 module cullenect_hardware(hardware) {
 
-    // Washer
-    module washer(){
-        difference(){
-            cylinder(h=layer, d=hardX, center=true);
-            cylinder(h=layer, d=hardNegative, center=true);
+  // Washer
+  module washer() {
+    difference() {
+      cylinder(h=layer, d=hardX, center=true);
+      cylinder(h=layer, d=hardNegative, center=true);
+    }
+  }
+
+  // Locking Washer
+  module washer_locking() {
+    difference() {
+      washer();
+      translate([-hardX / 5, hardX / 3, 0])
+        rotate([0, 0, 45])
+          cube([hardX / 5, hardX / 2, layer], true);
+    }
+  }
+
+  // Threaded Insert
+  module threaded_insert() {
+
+    stripeX = hardX * 0.0849;
+    stripeY = hardX * 0.1376;
+    stripeStep = stripeX + hardX * 0.0776;
+
+    module stripePoly() {
+      linear_extrude(layer)
+        polygon(points=[[0, 0], [stripeX, 0], [stripeX * 2.5, -stripeY], [stripeX * 1.5, -stripeY]]);
+    }
+
+    translate([-hardX / 2, -hardX / 2, -layer / 2])
+      difference() {
+        union() {
+          RoundedCube([hardX, hardX / 4, layer], 0.2); // Top of insert
+          translate([1, 0, 0])
+            cube([hardX - 2, hardX, layer]);
+          // Middle of insert
+          translate([0, hardX * 0.75, 0])
+            RoundedCube([hardX, hardX / 4, layer], 0.2);
+          // Bottom of insert
         }
-    }
-    
-    // Locking Washer
-    module washer_locking(){
-        difference(){
-            washer();
-            translate([-hardX/5,hardX/3,0])
-                rotate([0,0,45])
-                    cube([hardX/5,hardX/2,layer], true);
+        translate([-1, hardX / 4, 0])
+          RoundedCube([hardX / 5 + 1, hardX / 2, layer], 0.2);
+        translate([hardX - hardX / 5, hardX / 4, 0])
+          RoundedCube([hardX / 5 + 1, hardX / 2, layer], 0.2);
+        translate([hardX * 0.06, hardX * 0.19, 0])for (i = [0:1:4]) {
+          translate([(i * stripeStep), 0, 0])
+            stripePoly();
+          translate([(i * stripeStep), hardX * 0.75, 0])
+            stripePoly();
         }
-    }
-
-    // Threaded Insert
-    module threaded_insert(){
-    
-        stripeX = hardX*0.0849;
-        stripeY = hardX*0.1376;
-        stripeStep = stripeX + hardX*0.0776;
-    
-        module stripePoly(){
-            linear_extrude(layer)
-                polygon(points=[[0,0],[stripeX,0],[stripeX*2.5,-stripeY],[stripeX*1.5,-stripeY]]);
+      }
+  }
+
+  // Nut
+  module nut() {
+    difference() {
+      cylinder(h=layer, d=hardX, $fs=6, center=true);
+      cylinder(h=layer, d=hardNegative, center=true);
+    }
+  }
+
+  // Nut
+  module nut_square() {
+    difference() {
+      cube([hardX, hardX, layer], true);
+      cylinder(h=layer, d=hardNegative, center=true);
+    }
+  }
+
+  // Nut Nylon Lock
+  module nut_nylon() {
+    difference() {
+      cylinder(h=layer, d=hardX, $fs=6, center=true);
+      cylinder(h=layer, d=hardNegative, center=true);
+    }
+
+    difference() {
+      cylinder(h=layer, d=hardNegative * 0.8, center=true);
+      cylinder(h=layer, d=hardNegative * 0.6, center=true);
+    }
+  }
+
+  // T-Nut 1
+  module tnut_1() {
+
+    tnutY = hardX * 0.66;
+    tnutY2 = hardX * 0.88;
+    tnutX = hardX * 1.456;
+    tnutX2 = hardX * 0.728;
+    tnutCorner = hardX * 0.4714;
+
+    // TODO: Adjust size of tnuts and remove this right-aligned translate
+    // They should all be the same size and not require special translates for each
+    translate([-( (tnutX - hardX) / 2), 0, 0]) {
+      difference() {
+        translate([-tnutX / 2, -tnutY2 / 2, -layer / 2]) {
+          union() {
+            RoundedCube([tnutX, tnutY, layer], 0.5);
+            translate([(tnutX - tnutX2) / 2, 0, 0])
+              RoundedCube([tnutX2, tnutY2, layer], 0.5);
+          }
         }
-    
-        translate([-hardX/2,-hardX/2,-layer/2])
-            difference(){
-                union(){
-                    RoundedCube([hardX, hardX/4, layer], 0.2); // Top of insert
-                    translate([1,0,0])
-                        cube([hardX-2, hardX, layer]);// Middle of insert
-                    translate([0,hardX*0.75,0])
-                        RoundedCube([hardX, hardX/4, layer], 0.2);// Bottom of insert
-                }
-                translate([-1,hardX/4,0])
-                    RoundedCube([hardX/5 + 1, hardX/2, layer], 0.2);
-                translate([hardX-hardX/5,hardX/4,0])
-                    RoundedCube([hardX/5 + 1, hardX/2, layer], 0.2);
-                translate([hardX*0.06,hardX*0.19,0])
-                    for(i = [0:1:4]){
-                        translate([(i*stripeStep),0,0])
-                            stripePoly();
-                        translate([(i*stripeStep),hardX*0.75,0])
-                            stripePoly();
-                    }
-            }
-    }
-    
-    // Nut
-    module nut(){
-        difference(){
-            cylinder(h=layer, d=hardX, $fs=6, center=true);
-            cylinder(h=layer, d=hardNegative, center=true);
+        translate([-tnutX / 2, -tnutY2 / 2, 0])
+          rotate([0, 0, 45])
+            cube([tnutCorner, tnutCorner, layer], true);
+        translate([tnutX / 2, -tnutY2 / 2, 0])
+          rotate([0, 0, 45])
+            cube([tnutCorner, tnutCorner, layer], true);
+      }
+    }
+  }
+
+  // T-Nut 2
+  module tnut_2() {
+    tnutY = hardX * 0.8;
+    tnutX = hardX * 1.456;
+    slotX = hardX * 0.08;
+    slotY = hardX * 0.4;
+    slotStep = hardX * 0.0518;
+
+    // TODO: Adjust size of tnuts and remove this right-aligned translate
+    // They should all be the same size and not require special translates for each
+    translate([-( (tnutX - hardX) / 2), 0, 0]) {
+      difference() {
+        translate([-tnutX / 2, -tnutY / 2, -layer / 2]) {
+          union() {
+            RoundedCube([tnutX, tnutY, layer], 3.33);
+            RoundedCube([tnutX / 2, tnutY / 2, layer], 0.5);
+            translate([tnutX / 2, tnutY / 2, 0])
+              RoundedCube([tnutX / 2, tnutY / 2, layer], 0.5);
+          }
         }
-    }
-    
-    // Nut
-    module nut_square(){
-        difference(){
-            cube([hardX,hardX,layer], true);
-            cylinder(h=layer, d=hardNegative, center=true);
+        cylinder(h=layer, d=hardX / 2, center=true);
+        for (i = [0:1:2]) {
+          translate([hardX / 4 + hardX * 0.03945 + ( (slotX + slotStep) * i), -slotY / 2, -layer / 2])
+            RoundedCube([slotX, slotY, layer], 0.25);
+          rotate([0, 0, 180])
+            translate([hardX / 4 + hardX * 0.03945 + ( (slotX + slotStep) * i), -slotY / 2, -layer / 2])
+              RoundedCube([slotX, slotY, layer], 0.25);
         }
-    }
-    
-    // Nut Nylon Lock
-    module nut_nylon(){
-        difference(){
-            cylinder(h=layer, d=hardX, $fs=6, center=true);
-            cylinder(h=layer, d=hardNegative, center=true);
-        }
-        
-        difference(){
-            cylinder(h=layer, d=hardNegative*0.8, center=true);
-            cylinder(h=layer, d=hardNegative*0.6, center=true);
-        }
-    }
-    
-    // T-Nut 1
-    module tnut_1(){
-    
-        tnutY = hardX*0.66;
-        tnutY2 = hardX*0.88;
-        tnutX = hardX*1.456;
-        tnutX2 = hardX*0.728;
-        tnutCorner = hardX*0.4714;
-        
-        // TODO: Adjust size of tnuts and remove this right-aligned translate
-        // They should all be the same size and not require special translates for each
-        translate([-((tnutX-hardX)/2),0,0]){
-            difference(){
-                translate([-tnutX/2,-tnutY2/2,-layer/2]){
-                    union(){
-                        RoundedCube([tnutX, tnutY, layer], 0.5);
-                        translate([(tnutX-tnutX2)/2,0,0])
-                            RoundedCube([tnutX2, tnutY2, layer], 0.5);
-                    }
-                }
-                translate([-tnutX/2,-tnutY2/2,0])
-                    rotate([0,0,45])
-                        cube([tnutCorner,tnutCorner,layer],true);
-                translate([tnutX/2,-tnutY2/2,0])
-                    rotate([0,0,45])
-                        cube([tnutCorner,tnutCorner,layer],true);
-            }
-        }
-    }
-    
-    
-    // T-Nut 2
-    module tnut_2(){
-        tnutY = hardX*0.8;
-        tnutX = hardX*1.456;
-        slotX = hardX*0.08;
-        slotY = hardX*0.4;
-        slotStep = hardX*0.0518;
-        
-        // TODO: Adjust size of tnuts and remove this right-aligned translate
-        // They should all be the same size and not require special translates for each
-        translate([-((tnutX-hardX)/2),0,0]){
-            difference(){
-                translate([-tnutX/2,-tnutY/2,-layer/2]){
-                    union(){
-                        RoundedCube([tnutX, tnutY, layer], 3.33);
-                        RoundedCube([tnutX/2, tnutY/2, layer], 0.5);
-                        translate([tnutX/2,tnutY/2,0])
-                            RoundedCube([tnutX/2, tnutY/2, layer], 0.5);
-                    }
-                }
-                cylinder(h=layer, d=hardX/2, center=true);
-                for(i = [0:1:2]){
-                    translate([hardX/4+hardX*0.03945+((slotX+slotStep)*i),-slotY/2,-layer/2])
-                        RoundedCube([slotX, slotY, layer], 0.25);
-                    rotate([0,0,180])
-                        translate([hardX/4+hardX*0.03945+((slotX+slotStep)*i),-slotY/2,-layer/2])
-                            RoundedCube([slotX, slotY, layer], 0.25);
-                }
-            } 
+      }
+    }
+  }
+
+  // Magnet
+  module magnet() {
+    difference() {
+      union() {
+        washer();
+        translate([-hardX / 4, 0, 0])
+          cube([hardX / 2, hardX, layer], true);
+      }
+      translate([-hardX / 4, 0, 0])
+        cube([hardX / 2, hardNegative, layer], true);
+      translate([-hardX / 3, 0, 0])
+        cube([hardX * 0.05, hardX, layer], true);
+    }
+  }
+
+  // Crimp Fitting Variables
+  crimpX = hardX * 0.8;
+  crimpNegative = hardNegative * 0.8;
+
+  // Crimp Shaft
+  module crimp_barrel(barrel = "closed", offset = 0) {
+
+    crimpShaftX = crimpX + offset;
+    crimpShaftY = crimpNegative;
+
+    // Wings
+    module barrel_open() {
+      translate([( -crimpNegative / 2) + offset, crimpShaftY / 2, -layer / 2])
+        rotate([0, 0, 180]) {
+          union() {
+            cube([crimpShaftX, crimpShaftY, layer], center=false);
+            translate([crimpShaftX - (crimpShaftX * 0.2), -crimpShaftY * 0.2, 0])
+              RoundedCube([crimpShaftX * 0.2, crimpShaftY * 1.4, layer], 0.25);
+            translate([crimpShaftX - (crimpShaftX * 0.7), -crimpShaftY * 0.2, 0])
+              RoundedCube([crimpShaftX * 0.4, crimpShaftY * 1.4, layer], 0.25);
+          }
         }
     }
-    
-    // Magnet
-    module magnet(){
-        difference(){
-            union(){
-                washer();
-                translate([-hardX/4,0,0])
-                    cube([hardX/2,hardX,layer], true);
-            }
-            translate([-hardX/4,0,0])
-                    cube([hardX/2,hardNegative,layer], true);
-            translate([-hardX/3,0,0])
-                    cube([hardX*0.05,hardX,layer], true);
-        }
-    }
-    
-    // Crimp Fitting Variables
-    crimpX = hardX*0.8;
-    crimpNegative = hardNegative*0.8;
-    
-    // Crimp Shaft
-    module crimp_barrel(barrel="closed",offset=0){
-    
-        crimpShaftX = crimpX + offset;
-        crimpShaftY = crimpNegative;
-        
-        // Wings
-        module barrel_open(){
-            translate([(-crimpNegative/2) + offset,crimpShaftY/2,-layer/2])
-            rotate([0,0,180]){
-                union(){
-                    cube([crimpShaftX,crimpShaftY,layer], center=false);
-                    translate([crimpShaftX-(crimpShaftX*0.2),-crimpShaftY*0.2,0])
-                        RoundedCube([crimpShaftX*0.2, crimpShaftY*1.4, layer], 0.25);
-                    translate([crimpShaftX-(crimpShaftX*0.7),-crimpShaftY*0.2,0])
-                        RoundedCube([crimpShaftX*0.4, crimpShaftY*1.4, layer], 0.25);
-                }
-            }
-        }
-        
-        // Cylinder
-        module barrel_closed(){
-            translate([(-crimpNegative/2) + offset,crimpShaftY/2,-layer/2])
-            rotate([0,0,180]){
-                difference(){
-                    union(){
-                        cube([crimpShaftX,crimpShaftY,layer], center=false);
-                        translate([crimpShaftX,crimpShaftY/2,layer/2]){
-                            resize([crimpShaftY/2,0,0])
-                                cylinder(h=layer, d=crimpShaftY*1.2, center=true);
-                        }
-                        translate([crimpNegative/4,crimpShaftY/2,layer/2]){
-                            resize([crimpShaftY/2,0,0])
-                                cylinder(h=layer, d=crimpShaftY*1.2, center=true);
-                        }
-                    }
-                    translate([crimpShaftX,crimpShaftY/2,layer/2]){
-                        resize([crimpShaftY/5,crimpShaftY*0.8,0])
-                            cylinder(h=layer, d=crimpShaftY*1, center=true);
-                    }
-                }
+
+    // Cylinder
+    module barrel_closed() {
+      translate([( -crimpNegative / 2) + offset, crimpShaftY / 2, -layer / 2])
+        rotate([0, 0, 180]) {
+          difference() {
+            union() {
+              cube([crimpShaftX, crimpShaftY, layer], center=false);
+              translate([crimpShaftX, crimpShaftY / 2, layer / 2]) {
+                resize([crimpShaftY / 2, 0, 0])
+                  cylinder(h=layer, d=crimpShaftY * 1.2, center=true);
+              }
+              translate([crimpNegative / 4, crimpShaftY / 2, layer / 2]) {
+                resize([crimpShaftY / 2, 0, 0])
+                  cylinder(h=layer, d=crimpShaftY * 1.2, center=true);
+              }
             }
-        }
-            
-        // Output
-        if (barrel == "open")barrel_open();
-        if (barrel == "closed")barrel_closed();
-    }
-    
-    // Crimp Ring
-    module crimp_ring(barrel="closed"){
-        translate([hardX*0.1,0,0]){
-            // Barrel
-            crimp_barrel(barrel);
-            // Ring
-            difference(){
-                cylinder(h=layer, d=crimpX, center=true);
-                cylinder(h=layer, d=crimpNegative, center=true);
+            translate([crimpShaftX, crimpShaftY / 2, layer / 2]) {
+              resize([crimpShaftY / 5, crimpShaftY * 0.8, 0])
+                cylinder(h=layer, d=crimpShaftY * 1, center=true);
             }
+          }
         }
     }
-    
-    // Crimp Fork
-    module crimp_fork(barrel="closed"){
-        translate([hardX*0.13,0,0]){
-            // Barrel
-            crimp_barrel(barrel,offset=-crimpX*0.1);
-            // Fork
-            difference(){
-                    union(){
-                        cylinder(h=layer, d=crimpX, center=true);
-                    translate([crimpX*0.25,0,0])
-                        cube([crimpX*0.45,crimpX,layer], center=true);
-                }
-                cylinder(h=layer, d=crimpX/1.5, center=true);
-                #translate([crimpX/4,0,0])
-                    cube([crimpX/2,crimpX/1.5,layer], center=true);
-            }
+
+    // Output
+    if (barrel == "open") barrel_open();
+    if (barrel == "closed") barrel_closed();
+  }
+
+  // Crimp Ring
+  module crimp_ring(barrel = "closed") {
+    translate([hardX * 0.1, 0, 0]) {
+      // Barrel
+      crimp_barrel(barrel);
+      // Ring
+      difference() {
+        cylinder(h=layer, d=crimpX, center=true);
+        cylinder(h=layer, d=crimpNegative, center=true);
+      }
+    }
+  }
+
+  // Crimp Fork
+  module crimp_fork(barrel = "closed") {
+    translate([hardX * 0.13, 0, 0]) {
+      // Barrel
+      crimp_barrel(barrel, offset=-crimpX * 0.1);
+      // Fork
+      difference() {
+        union() {
+          cylinder(h=layer, d=crimpX, center=true);
+          translate([crimpX * 0.25, 0, 0])
+            cube([crimpX * 0.45, crimpX, layer], center=true);
         }
-    }
-    
-    // Crimp Spade
-    module crimp_spade(barrel="closed"){
-        translate([hardX*0.1,0,0]){
-            // Barrel
-            crimp_barrel(barrel,offset=-crimpX*0.1);
-            // Spade
-            translate([0,0,-layer/2])
-            #difference(){
-                linear_extrude(layer)
-                    polygon(points=[
-                        [-crimpX*0.4,crimpNegative/2],
-                        [-crimpX/4,crimpX*0.4],
-                        [crimpX/3,crimpX*0.4],
-                        [crimpX/2,crimpX/4],
-                        [crimpX/2,-crimpX/4],
-                        [crimpX/3,-crimpX*0.4],
-                        [-crimpX/4,-crimpX*0.4],
-                        [-crimpX*0.4,-crimpNegative/2],
-                    ]);
-                    translate([crimpX*0.1,0,layer/2])
-                        #cylinder(h=layer, d=crimpNegative/4, center=true);
-            }
+        cylinder(h=layer, d=crimpX / 1.5, center=true);
+        #translate([crimpX / 4, 0, 0])
+          cube([crimpX / 2, crimpX / 1.5, layer], center=true);
+      }
+    }
+  }
+
+  // Crimp Spade
+  module crimp_spade(barrel = "closed") {
+    translate([hardX * 0.1, 0, 0]) {
+      // Barrel
+      crimp_barrel(barrel, offset=-crimpX * 0.1);
+      // Spade
+      translate([0, 0, -layer / 2])
+        #difference() {
+          linear_extrude(layer)
+            polygon(
+              points=[
+                [-crimpX * 0.4, crimpNegative / 2],
+                [-crimpX / 4, crimpX * 0.4],
+                [crimpX / 3, crimpX * 0.4],
+                [crimpX / 2, crimpX / 4],
+                [crimpX / 2, -crimpX / 4],
+                [crimpX / 3, -crimpX * 0.4],
+                [-crimpX / 4, -crimpX * 0.4],
+                [-crimpX * 0.4, -crimpNegative / 2],
+              ]
+            );
+          translate([crimpX * 0.1, 0, layer / 2])
+            #cylinder(h=layer, d=crimpNegative / 4, center=true);
         }
     }
-    
-    // Crimp Receptacle
-    module crimp_receptacle(barrel="closed"){
-        translate([hardX*0.06,0,0]){
-            // Barrel
-            crimp_barrel(barrel,offset=-crimpX*0.1);
-            // Receptacle
-            difference(){
-                union(){
-                    cube([crimpX*0.85,crimpX*0.7,layer], center=true);
-                    translate([-crimpX*0.45,crimpX*0.12,-layer/2])
-                        RoundedCube([crimpX, crimpX*0.3, layer], 0.5);
-                    translate([-crimpX*0.45,-crimpX*0.42,-layer/2])
-                        RoundedCube([crimpX, crimpX*0.3, layer], 0.5);
-                }
-                cube([crimpX*0.06,crimpX*0.3,layer], center=true);
-                translate([-crimpX/6,0,0])
-                    cube([crimpX*0.06,crimpX*0.3,layer], center=true);
-                translate([crimpX/6,0,0])
-                    cube([crimpX*0.06,crimpX*0.3,layer], center=true);
-            }
+  }
+
+  // Crimp Receptacle
+  module crimp_receptacle(barrel = "closed") {
+    translate([hardX * 0.06, 0, 0]) {
+      // Barrel
+      crimp_barrel(barrel, offset=-crimpX * 0.1);
+      // Receptacle
+      difference() {
+        union() {
+          cube([crimpX * 0.85, crimpX * 0.7, layer], center=true);
+          translate([-crimpX * 0.45, crimpX * 0.12, -layer / 2])
+            RoundedCube([crimpX, crimpX * 0.3, layer], 0.5);
+          translate([-crimpX * 0.45, -crimpX * 0.42, -layer / 2])
+            RoundedCube([crimpX, crimpX * 0.3, layer], 0.5);
         }
-    }
-    
-    // Output
-    if (hardware == "washer")washer();
-    if (hardware == "washer_locking")washer_locking();
-    if (hardware == "threaded_insert")threaded_insert();
-    if (hardware == "nut")nut();
-    if (hardware == "nut_nylon")nut_nylon();
-    if (hardware == "nut_square")nut_square();
-    if (hardware == "tnut_1")tnut_1();
-    if (hardware == "tnut_2")tnut_2();
-    if (hardware == "magnet")magnet();
-    if (hardware == "crimp_ring_open")crimp_ring(barrel="open");
-    if (hardware == "crimp_ring_closed")crimp_ring(barrel="closed");
-    if (hardware == "crimp_fork_open")crimp_fork(barrel="open");
-    if (hardware == "crimp_fork_closed")crimp_fork(barrel="closed");
-    if (hardware == "crimp_spade_open")crimp_spade(barrel="open");
-    if (hardware == "crimp_spade_closed")crimp_spade(barrel="closed");
-    if (hardware == "crimp_receptacle_open")crimp_receptacle(barrel="open");
-    if (hardware == "crimp_receptacle_closed")crimp_receptacle(barrel="closed");
+        cube([crimpX * 0.06, crimpX * 0.3, layer], center=true);
+        translate([-crimpX / 6, 0, 0])
+          cube([crimpX * 0.06, crimpX * 0.3, layer], center=true);
+        translate([crimpX / 6, 0, 0])
+          cube([crimpX * 0.06, crimpX * 0.3, layer], center=true);
+      }
+    }
+  }
+
+  // Output
+  if (hardware == "washer") washer();
+  if (hardware == "washer_locking") washer_locking();
+  if (hardware == "threaded_insert") threaded_insert();
+  if (hardware == "nut") nut();
+  if (hardware == "nut_nylon") nut_nylon();
+  if (hardware == "nut_square") nut_square();
+  if (hardware == "tnut_1") tnut_1();
+  if (hardware == "tnut_2") tnut_2();
+  if (hardware == "magnet") magnet();
+  if (hardware == "crimp_ring_open") crimp_ring(barrel="open");
+  if (hardware == "crimp_ring_closed") crimp_ring(barrel="closed");
+  if (hardware == "crimp_fork_open") crimp_fork(barrel="open");
+  if (hardware == "crimp_fork_closed") crimp_fork(barrel="closed");
+  if (hardware == "crimp_spade_open") crimp_spade(barrel="open");
+  if (hardware == "crimp_spade_closed") crimp_spade(barrel="closed");
+  if (hardware == "crimp_receptacle_open") crimp_receptacle(barrel="open");
+  if (hardware == "crimp_receptacle_closed") crimp_receptacle(barrel="closed");
 }
 
 // Master function to generate configured label
 module cullenect_label_generate(
-            labelX = labelX,
-            labelY = labelY,
-            labelZ = labelZ,
-            layer = layer,
-            showFastener=Show_Fastener,
-            fastenerHead=Fastener_Head,
-            fastenerShaft=Fastener_Shaft,
-            fastenerThreads=Fastener_Threads,
-            fastenerDriver=Fastener_Driver,
-            fastenerDriverSecurity=Fastener_Driver_Security,
-            fastenerHeadFlange=Fastener_Head_Flange,
-            hardware=Select_Hardware,
-        ){
-        
-        marginRight = (labelY - hardX) / 2;
-        fastener_pos = [labelX-driverX/2,labelY/2,labelZ+layer/2];
-        hardware_pos = [labelX-(hardX/2)-marginRight,labelY/2,labelZ+layer/2];
-        
-        // Fastener
-        module fastener(){
-            translate(fastener_pos){
-                union(){
-                    difference(){
-                        cullenect_head(head=fastenerHead,flange=fastenerHeadFlange);
-                        cullenect_driver(driver=fastenerDriver);
-                    }
-                    cullenect_shaft(shaft=fastenerShaft,threads=fastenerThreads);
-                    if(fastenerDriverSecurity)cullenect_driver(driver="security");
-                }
-            }
-        }
-        
-        // Hardware
-        module hardware(){
-            translate(hardware_pos){
-                cullenect_hardware(hardware);
-            }
-        }
-        
-        // Text, hardware, fastener
-        module everything(){
-            label_text1();
-			label_text2();
-            if(showFastener)fastener();
-            hardware();
-        }
-        
-        // Emboss or Deboss everything
-        if (label_surface == 01) {
-            // Deboss
-            difference(){
-                color("silver")cullenect_base();
-                translate([0,0,-layer])
-                    color(Text_Color)everything();
-            }
-        } else if (label_surface == 02) {
-            // Flush
-            union(){
-                color("silver")cullenect_base();
-                translate([0,0,-(layer - fudge)])
-                    color(Text_Color)everything();
-            }
-        } else{
-            // Emboss
-            union(){
-                color("silver")cullenect_base();
-                color(Text_Color)everything();
+  labelX = labelX,
+  labelY = labelY,
+  labelZ = labelZ,
+  layer = layer,
+  showFastener = Show_Fastener,
+  fastenerHead = Fastener_Head,
+  fastenerShaft = Fastener_Shaft,
+  fastenerThreads = Fastener_Threads,
+  fastenerDriver = Fastener_Driver,
+  fastenerDriverSecurity = Fastener_Driver_Security,
+  fastenerHeadFlange = Fastener_Head_Flange,
+  fastenerView = Fastener_View,
+  hardware = Select_Hardware,
+) {
+
+  marginRight = (labelY - hardX) / 2;
+  fastener_pos = [labelX - driverX / 2, labelY / 2, labelZ + layer / 2];
+  hardware_pos = [labelX - (hardX / 2) - marginRight, labelY / 2, labelZ + layer / 2];
+
+  // Fastener
+  module fastener() {
+    translate(fastener_pos) {
+      union() {
+        if (fastenerView == "top") {
+          translate([-3, 0, 0]) {
+            difference() {
+              cullenect_head(head=fastenerHead, flange=fastenerHeadFlange, view="top");
+              cullenect_driver(driver=fastenerDriver);
             }
+            if (fastenerDriverSecurity) cullenect_driver(driver="security");
+          }
+        } else {
+          difference() {
+            cullenect_head(head=fastenerHead, flange=fastenerHeadFlange, view="side");
+            cullenect_driver(driver=fastenerDriver);
+          }
+          cullenect_shaft(shaft=fastenerShaft, threads=fastenerThreads);
+          if (fastenerDriverSecurity) cullenect_driver(driver="security");
         }
+      }
+    }
+  }
+
+  // Hardware
+  module hardware() {
+    translate(hardware_pos) {
+      cullenect_hardware(hardware);
+    }
+  }
+
+  // Text, hardware, fastener
+  module everything() {
+    label_text1();
+    label_text2();
+    if (showFastener) fastener();
+    hardware();
+  }
+
+  // Emboss or Deboss everything
+  if (label_surface == 01) {
+    // Deboss
+    difference() {
+      color("silver") cullenect_base();
+      translate([0, 0, -layer])
+        color(Text_Color) everything();
+    }
+  } else if (label_surface == 02) {
+    // Flush
+    union() {
+      color("silver") cullenect_base();
+      translate([0, 0, -(layer - fudge)])
+        color(Text_Color) everything();
+    }
+  } else {
+    // Emboss
+    union() {
+      color("silver") cullenect_base();
+      color(Text_Color) everything();
+    }
+  }
 }
 
 // Generate Selected Model...
 module selected_model() {
-         if (Select_Output == 10) {cullenect_socket();}
-    else if (Select_Output == 11) {cullenect_socket_negative();}
-    else if (Select_Output == 20) {cullenect_vertical_socket();}
-    else if (Select_Output == 21) {cullenect_vertical_socket_negative();}
-    else                          {cullenect_label_generate();}
+  if (Select_Output == 10) {
+    cullenect_socket();
+  } else if (Select_Output == 11) {
+    cullenect_socket_negative();
+  } else if (Select_Output == 20) {
+    cullenect_vertical_socket();
+  } else if (Select_Output == 21) {
+    cullenect_vertical_socket_negative();
+  } else {
+    cullenect_label_generate();
+  }
 }
 selected_model();
diff --git a/OpenSCAD/README.md b/OpenSCAD/README.md
new file mode 100644
index 0000000..48a2a44
--- /dev/null
+++ b/OpenSCAD/README.md
@@ -0,0 +1,71 @@
+# Cullenect Labels
+
+A configurable 3D printable label system for Gridfinity bins (and more), powered by OpenSCAD.
+
+## Usage
+
+### 1. Manual Generation (OpenSCAD)
+Open `Cullenect.scad` in OpenSCAD. Use the Customizer (Window > Customizer) to adjust settings.
+
+#### Key Parameters
+
+**General Settings**
+*   `Select_Output`: Choose what to render (Label, Socket Test, etc.).
+*   `label_width`: Width in Gridfinity units (default: 1).
+*   `label_surface`: Style of the label (Emboss, Deboss, Flush).
+*   `Text_Color`: Color of the text/icon (for multi-color prints).
+
+**Label Text**
+*   `Text1` / `Text2`: Content of the left and right text fields.
+*   `Text1_Align` / `Text2_Align`: Alignment (left, center, right).
+
+**Fastener Icon**
+*   `Show_Fastener`: Enable/Disable the fastener icon.
+*   `Fastener_Head`: Type of head (socket, countersunk, pan, etc.).
+*   `Fastener_Driver`: Type of driver (phillips, hex, torx, etc.).
+*   `Fastener_View`: **[NEW]** Select "side" (default) or "top" (head-on view).
+
+**Hardware Icon**
+*   `Select_Hardware`: Choose a secondary hardware icon (washer, nut, magnet, etc.) to display alongside the fastener.
+
+### 2. Automated Generation (Python)
+
+A Python script `generate_models.py` is provided to batch generate models from JSON configuration files.
+
+#### Requirements
+*   Python 3.x
+*   OpenSCAD (installed and in your PATH, or in a standard location)
+
+#### Quick Start
+1.  Define your models in JSON files inside the `configs/` directory.
+2.  Run the script:
+    ```bash
+    python generate_models.py
+    ```
+3.  Find your files in the `output/` directory.
+
+#### Config Format
+Create a `.json` file in `configs/` (e.g., `my_label.json`):
+```json
+{
+    "filename": "My_Custom_Label",
+    "vars": {
+        "Text1": "M3",
+        "Select_Hardware": "washer",
+        "Fastener_View": "top",
+        "Show_Fastener": "true"
+    }
+}
+```
+*   `filename`: Output filename (extensions added automatically).
+*   `vars`: Dictionary of OpenSCAD variables to override.
+
+#### Command Line Options
+```bash
+python generate_models.py [options]
+```
+
+*   `--format [fmt]`: Output format. Supported: `stl` (default), `3mf`, `step`, `png`, etc.
+    *   Example: `python generate_models.py --format 3mf`
+*   `--jobs [n]`: Number of parallel jobs. Defaults to your CPU core count.
+    *   Example: `python generate_models.py -j 4`
diff --git a/OpenSCAD/configs/Label_Nut_M4_Red.json b/OpenSCAD/configs/Label_Nut_M4_Red.json
new file mode 100644
index 0000000..0e30184
--- /dev/null
+++ b/OpenSCAD/configs/Label_Nut_M4_Red.json
@@ -0,0 +1,8 @@
+{
+   "filename": "Label_Nut_M4_Red",
+   "vars": {
+      "Text1": "M4",
+      "Select_Hardware": "nut",
+      "Text_Color": "#FF0000"
+   }
+}
\ No newline at end of file
diff --git a/OpenSCAD/configs/Label_Socket_Test.json b/OpenSCAD/configs/Label_Socket_Test.json
new file mode 100644
index 0000000..27fb099
--- /dev/null
+++ b/OpenSCAD/configs/Label_Socket_Test.json
@@ -0,0 +1,6 @@
+{
+   "filename": "Label_Socket_Test",
+   "vars": {
+      "Select_Output": 10
+   }
+}
\ No newline at end of file
diff --git a/OpenSCAD/configs/Label_TopView_Demo.json b/OpenSCAD/configs/Label_TopView_Demo.json
new file mode 100644
index 0000000..d337645
--- /dev/null
+++ b/OpenSCAD/configs/Label_TopView_Demo.json
@@ -0,0 +1,8 @@
+{
+   "filename": "Label_TopView_Demo",
+   "vars": {
+      "Show_Fastener": "true",
+      "Fastener_View": "top",
+      "Fastener_Head": "pan"
+   }
+}
\ No newline at end of file
diff --git a/OpenSCAD/configs/Label_Washer_M3.json b/OpenSCAD/configs/Label_Washer_M3.json
new file mode 100644
index 0000000..64ee995
--- /dev/null
+++ b/OpenSCAD/configs/Label_Washer_M3.json
@@ -0,0 +1,8 @@
+{
+   "filename": "Label_Washer_M3",
+   "vars": {
+      "Text1": "M3",
+      "Select_Hardware": "washer",
+      "label_width": 1
+   }
+}
\ No newline at end of file
diff --git a/OpenSCAD/generate_models.py b/OpenSCAD/generate_models.py
new file mode 100644
index 0000000..f7b61d4
--- /dev/null
+++ b/OpenSCAD/generate_models.py
@@ -0,0 +1,137 @@
+import subprocess
+import os
+import sys
+import shutil
+import json
+import glob
+
+# --- Configuration ---
+OPENSCAD_PATH_HINTS = [
+    r"C:\Program Files\OpenSCAD\openscad.exe",
+    r"C:\Program Files (x86)\OpenSCAD\openscad.exe",
+    "/Applications/OpenSCAD.app/Contents/MacOS/OpenSCAD", # macOS
+    "/usr/bin/openscad", # Linux
+]
+
+OUTPUT_DIR = "output"
+CONFIG_DIR = "configs"
+SCAD_FILE = "Cullenect.scad"
+
+# ---------------------
+
+def find_openscad():
+    # Check PATH first
+    path = shutil.which("openscad")
+    if path:
+        return path
+    
+    # Check hints
+    for hint in OPENSCAD_PATH_HINTS:
+        if os.path.exists(hint):
+            return hint
+    
+    return None
+
+def load_configs():
+    configs = []
+    if not os.path.exists(CONFIG_DIR):
+        print(f"Warning: Config directory '{CONFIG_DIR}' not found.")
+        return configs
+        
+    json_files = glob.glob(os.path.join(CONFIG_DIR, "*.json"))
+    for f in json_files:
+        try:
+            with open(f, 'r') as file:
+                config = json.load(file)
+                # If filename not in config, use the json filename
+                if "filename" not in config:
+                    base = os.path.basename(f)
+                    config["filename"] = os.path.splitext(base)[0]
+                configs.append(config)
+        except Exception as e:
+            print(f"Error reading config {f}: {e}")
+            
+    return configs
+
+import argparse
+
+def generate_model(openscad_bin, model_config, output_format="stl"):
+    filename = model_config.get("filename", "unknown_model")
+    variables = model_config.get("vars", {})
+    
+    # Strip existing extension if present and irrelevant
+    base_name = os.path.splitext(filename)[0]
+    filename_with_ext = f"{base_name}.{output_format}"
+        
+    output_path = os.path.join(OUTPUT_DIR, filename_with_ext)
+    
+    print(f"Generating {output_path}...")
+    
+    # Build command
+    cmd = [openscad_bin, "-o", output_path]
+    
+    # Add variable overrides
+    for key, value in variables.items():
+        if isinstance(value, str):
+             if value.lower() == "true" or value.lower() == "false":
+                 cmd.append(f"-D{key}={value}")
+             else:
+                 cmd.append(f'-D{key}="{value}"')
+        else:
+            cmd.append(f"-D{key}={value}")
+            
+    cmd.append(SCAD_FILE)
+    
+    try:
+        subprocess.run(cmd, check=True)
+    except subprocess.CalledProcessError as e:
+        print(f"Error generating {filename_with_ext}: {e}")
+
+def main():
+    parser = argparse.ArgumentParser(description="Batch generate OpenSCAD models.")
+    parser.add_argument("--format", type=str, default="stl", help="Output format (stl, 3mf, step, etc.)", choices=["stl", "3mf", "step", "obj", "off", "dxf", "svg", "png", "echo", "ast", "term", "csg"])
+    parser.add_argument("--jobs", "-j", type=int, default=os.cpu_count(), help="Number of parallel jobs (default: CPU count)")
+    args = parser.parse_args()
+
+    # 1. Find OpenSCAD
+    openscad = find_openscad()
+    if not openscad:
+        print("Error: OpenSCAD executable not found. Please add it to your PATH or update OPENSCAD_PATH_HINTS in the script.")
+        sys.exit(1)
+    print(f"Using OpenSCAD: {openscad}")
+
+    # 2. Prepare Output Directory
+    if not os.path.exists(OUTPUT_DIR):
+        os.makedirs(OUTPUT_DIR)
+        print(f"Created output directory: {OUTPUT_DIR}")
+
+    # 3. Load Configs
+    models = load_configs()
+    if not models:
+        print("No configurations found. Add .json files to the 'configs' directory.")
+        return
+
+    print(f"Found {len(models)} configurations. Generating as .{args.format} with {args.jobs} jobs...")
+
+    # 4. Generate Models (Parallel)
+    import concurrent.futures
+    import functools
+
+    # Create a partial function with fixed arguments
+    worker = functools.partial(generate_model, openscad, output_format=args.format)
+
+    with concurrent.futures.ProcessPoolExecutor(max_workers=args.jobs) as executor:
+        # Submit all tasks
+        futures = [executor.submit(worker, model) for model in models]
+        
+        # Wait for completion and handle errors
+        for future in concurrent.futures.as_completed(futures):
+            try:
+                future.result()
+            except Exception as e:
+                print(f"Job failed: {e}")
+        
+    print("\nBatch generation complete!")
+
+if __name__ == "__main__":
+    main()
diff --git a/README.md b/README.md
index 29abadc..a512468 100644
--- a/README.md
+++ b/README.md
@@ -1,5 +1,6 @@
 # Cullenect Labels
-A standardized system of swappable 3D printed labels for Gridfinity and more. Thin and efficient labels with a satisfying *click* when inserted into a slot. 
+
+A standardized system of swappable 3D printed labels for Gridfinity and more. Thin and efficient labels with a satisfying *click* when inserted into a slot.
 
 ## Related and Helpful Repositories
 * [Cullenect Labels On Makerworld](https://makerworld.com/en/models/446624) - Pre sliced profiles for various hardware. Makeworld Customizer better supports color than vanilla OpenSCAD (for now).
@@ -12,6 +13,92 @@ Thank you for the feedback and collaboration.
 * [ndevenish](https://github.com/ndevenish/)
 * [osts](https://github.com/ostat/)
 
+---
+
+## Configuration & Usage
+
+This project uses OpenSCAD and provides a comprehensive set of options to customize your labels. You can generate labels manually via the OpenSCAD Customizer or automate the process using the included Python script.
+
+### OpenSCAD Options (Customizer)
+
+#### General Settings
+*   **Select_Output**: Choose what to render.
+    *   `Label`: The standard label.
+    *   `Label Spacer`: A blank spacer.
+    *   `Socket Test Fit`: Test print for socket dimensions.
+    *   `Socket Negative Volume`: Negative volume to subtract from other models.
+    *   `Vertical Socket...`: Variants for vertical printing.
+*   **label_width**: Width of the label in Gridfinity units (default: 1).
+*   **backward_compatible**: Generate V1 latches for 1U bins (True/False).
+*   **label_surface**: Text style. `Emboss` (raised), `Deboss` (sunken), `Flush` (flat, for multi-color printing).
+*   **Text_Color**: Hex code for text/icon color (e.g., `#333333`).
+
+#### Label Text 1 & 2
+*   **Text1 / Text2**: The actual text content.
+*   **Text1_Align / Text2_Align**: Alignment (`left`, `center`, `right`).
+*   **Text1_Font_Size / Text2_Font_Size**: Font size in mm.
+*   **Text1_Font**: Font family (e.g., `Open Sans`, `Ubuntu`).
+*   **Text1_Font_Style**: Font style and weight (e.g., `Regular`, `Bold`).
+*   **Text1_XY / Text2_XY**: Manual X/Y position adjustment `[x, y]`.
+
+#### Fastener Icon
+*   **Show_Fastener**: Enable or disable the fastener icon.
+*   **Fastener_Head**: Head type (`socket`, `countersunk`, `roundh`, `pan`).
+*   **Fastener_Shaft**: Shaft type (`machine`, `tapping`).
+*   **Fastener_Threads**: Thread detail (`full`, `partial`, `none`).
+*   **Fastener_Driver**: Driver type (`phillips`, `hex`, `torx`, `slot`, etc.).
+*   **Fastener_Head_Flange**: Add a flange to the head (True/False).
+*   **Fastener_Driver_Security**: Add a security pin to the driver (True/False).
+*   **Fastener_View**: **[NEW]** Select view angle.
+    *   `side`: Traditional side profile.
+    *   `top`: Head-on view (circular).
+
+#### Hardware Icon
+*   **Select_Hardware**: Add a secondary hardware icon. Options include:
+    *   `washer`, `washer_locking`
+    *   `threaded_insert`
+    *   `nut`, `nut_square`, `nut_nylon`
+    *   `tnut_1` (Side), `tnut_2` (Top)
+    *   `magnet`
+    *   `crimp_...` (Various crimp connectors: ring, fork, spade, receptacle)
+
+---
+
+### Automated Generation (Python)
+
+Batch generate multiple labels using `OpenSCAD/generate_models.py`.
+
+#### Setup
+1.  Ensure you have OpenSCAD installed.
+2.  Define your label configurations in JSON files inside `OpenSCAD/configs/`.
+
+#### JSON Configuration Example
+Create a file like `OpenSCAD/configs/my_label.json`:
+```json
+{
+    "filename": "Label_Custom_M3",
+    "vars": {
+        "Text1": "M3",
+        "Select_Hardware": "washer",
+        "Text_Color": "#FF0000",
+        "Fastener_View": "top",
+        "Show_Fastener": "true"
+    }
+}
+```
+
+#### Running the Script
+Run the script from the `OpenSCAD` directory:
+```bash
+python generate_models.py [options]
+```
+
+**Options:**
+*   `--format [fmt]`: Output format (`stl`, `3mf`, `step`, etc.). Default is `stl`.
+*   `--jobs [n]`: Number of parallel jobs. Defaults to CPU core count.
+
+---
+
 ## Standards and Dimensions - Gridfinity
 Labels and sockets can be adapted to any size of bin. Custom label sizes are possible but these are the recommended dimensions: