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16 Commits

Author SHA1 Message Date
Chris Palmer
235f7b86e3 Camera connector position and size separated.
Camera_lens() module added.
2020-07-04 09:55:38 +01:00
Chris Palmer
92d7e18b16 Added pcb_size() function. 2020-07-04 09:53:09 +01:00
Chris Palmer
6a7226120f Fixed RPI camera component positions. 2020-06-30 18:57:14 +01:00
Chris Palmer
8aa00cd041 Added MGN12H rail and included MGN12 in the test. 2020-06-30 09:28:32 +01:00
Chris Palmer
f6b512da1f Added a couple of Raspberry Pi cameras. 2020-06-29 23:03:54 +01:00
Chris Palmer
c7ea0939b9 Made flat_flex parametric and changed default orientation. 2020-06-29 23:01:34 +01:00
Chris Palmer
265b5ab555 Fixed layout to work with an empty list. 2020-06-27 20:00:47 +01:00
Chris Palmer
186dbbfd08 Added SMT resistors and 0603 LED. 2020-06-27 19:59:49 +01:00
Chris Palmer
60659a43f8 Added light_strip_clip_wall(). 2020-06-24 16:42:17 +01:00
Chris Palmer
f412cb1736 Tweaked lightstrip dimensions. 2020-06-21 20:35:13 +01:00
Chris Palmer
2b878556fc Bug fix to platters.scad for last change. 2020-06-21 16:00:26 +01:00
Chris Palmer
1f1a360b7c Mods to allow panels and platters to be target specific or not. 2020-06-21 12:53:14 +01:00
Chris Palmer
a547c98995 Added shelf bracket to printed/box.scad. 2020-06-20 15:12:09 +01:00
Chris Palmer
d9fa8c8668 Added position children used for drilling holes on sheets. 2020-06-20 15:04:03 +01:00
Chris Palmer
bf5b6d7c30 Added matrix inversion 2020-06-20 15:01:01 +01:00
Chris Palmer
9cfde7f524 Updated readme for grey() change. 2020-06-20 14:56:38 +01:00
28 changed files with 629 additions and 162 deletions

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@@ -29,6 +29,7 @@ use <tests/blowers.scad>
use <tests/bulldogs.scad>
use <tests/buttons.scad>
use <tests/cable_strips.scad>
use <tests/cameras.scad>
use <tests/circlips.scad>
use <tests/components.scad>
use <tests/d_connectors.scad>
@@ -334,6 +335,9 @@ translate([x3 + 70, veroboard_y + 30])
translate([x3 + 140, veroboard_y + 20])
pcb_mounts();
translate([x3 + 170, veroboard_y + 16])
cameras();
translate([x3, d_connectors_y])
d_connectors();

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@@ -31,29 +31,29 @@
//!
//! Normally the side sheets are the same type but they can be overridden individually as long as the substitute has the same thickness.
//
include <../utils/core/core.scad>
include <../core.scad>
use <../vitamins/sheet.scad>
use <../vitamins/screw.scad>
use <../vitamins/washer.scad>
use <../vitamins/insert.scad>
use <../utils/quadrant.scad>
use <../utils/round.scad>
bezel_clearance = 0.2;
sheet_end_clearance = 1;
sheet_slot_clearance = 0.2;
function box_screw(type) = type[0]; //! Screw type to be used at the corners
function box_wall(type) = type[1]; //! Wall thickness of 3D parts
function box_sheets(type) = type[2]; //! Sheet type used for the sides
function box_top_sheet(type) = type[3]; //! Sheet type for the top
function box_base_sheet(type)= type[4]; //! Sheet type for the bottom
function box_feet(type) = type[5]; //! True to enable feet on the bottom bezel
function box_width(type) = type[6]; //! Internal width
function box_depth(type) = type[7]; //! Internal depth
function box_height(type) = type[8]; //! Internal height
function box_screw(type) = type[0]; //! Screw type to be used at the corners
function box_shelf_screw(type) = type[1]; //! Screw type to hold a shelf
function box_wall(type) = type[2]; //! Wall thickness of 3D parts
function box_sheets(type) = type[3]; //! Sheet type used for the sides
function box_top_sheet(type) = type[4]; //! Sheet type for the top
function box_base_sheet(type) = type[5]; //! Sheet type for the bottom
function box_feet(type) = type[6]; //! True to enable feet on the bottom bezel
function box_width(type) = type[7]; //! Internal width
function box_depth(type) = type[8]; //! Internal depth
function box_height(type) = type[9]; //! Internal height
function box(screw, wall, sheets, top_sheet, base_sheet, size, feet = false) = //! Construct a property list for a box.
concat([screw, wall, sheets, top_sheet, base_sheet, feet], size);
function box(screw, wall, sheets, top_sheet, base_sheet, size, feet = false, shelf_screw = M3_dome_screw) = //! Construct a property list for a box.
concat([screw, shelf_screw, wall, sheets, top_sheet, base_sheet, feet], size);
function box_bezel_clearance(type) = bezel_clearance;
@@ -62,6 +62,7 @@ function box_profile_overlap(type) = 3 + sheet_end_clearance / 2;
function box_washer(type) = screw_washer(box_screw(type));
function box_insert(type) = screw_insert(box_screw(type));
function box_shelf_insert(type) = screw_insert(box_shelf_screw(type));
function box_hole_inset(type) = washer_radius(box_washer(type)) + 1;
function box_insert_r(type) = insert_hole_radius(box_insert(type));
@@ -90,23 +91,32 @@ function box_bezel_height(type, bottom) = //! Bezel height for top or bottom
grill_hole = 5;
grill_gap = 1.9;
module grill(width, height, r = 1000, poly = false, h = 0) { //! A staggered array of 5mm holes to make grills in sheets. Can be constrained to be circular. Set ```poly``` ```true``` for printing, ```false``` for milling.
function box_grill_hole_r() = grill_hole / 2;
module grill_hole_positions(width, height, r = 1000) {
nx = floor(width / (grill_hole + grill_gap));
xpitch = width / nx;
ny = floor(height / ((grill_hole + grill_gap) * cos(30)));
ypitch = height / ny;
for(y = [0 : ny - 1], x = [0 : nx - 1 - (y % 2)]) {
$x = -width / 2 + (x + 0.5 + (y % 2) / 2) * xpitch;
$y = -height / 2 + (y + 0.5) * ypitch;
if(sqrt(sqr($x) + sqr($y)) + grill_hole / 2 <= r)
translate([$x, $y])
children();
}
}
module grill(width, height, r = 1000, poly = false, h = 0) { //! A staggered array of 5mm holes to make grills in sheets. Can be constrained to be circular. Set ```poly``` ```true``` for printing, ```false``` for milling.
extrude_if(h)
for(y = [0 : ny - 1], x = [0 : nx - 1 - (y % 2)]) {
x = -width / 2 + (x + 0.5 + (y % 2) / 2) * xpitch;
y = -height / 2 + (y + 0.5) * ypitch;
if(sqrt(sqr(x) + sqr(y)) + grill_hole / 2 <= r)
translate([x, y])
if(poly)
poly_circle(r = grill_hole / 2);
else
circle(d = grill_hole);
}
if(poly)
grill_hole_positions(width, height, r)
poly_circle(r = grill_hole / 2);
else
grill_hole_positions(width, height, r)
circle(d = grill_hole);
}
module box_corner_profile_2D(type) { //! The 2D shape of the corner profile.
@@ -178,6 +188,15 @@ module box_corner_profile_section(type, section, sections) { //! Generates inter
}
}
module box_corner_profile_sections(type, section, sections) { //! Generate four copies of a corner profile section
stl("box_corner_profile");
offset = box_boss_r(type) + 1;
for(i = [0 : 3])
rotate(i * 90)
translate([offset, offset])
box_corner_profile_section(type, section, sections);
}
module box_corner_quadrants(type, width, depth)
for(corner = [0:3]) {
x = [-1,1,1,-1][corner];
@@ -261,10 +280,11 @@ dowel_length = 20;
dowel_wall = extrusion_width * 3;
dowel_h_wall = layer_height * 6;
module box_bezel_section(type, bottom, rows, cols, x, y) { //! Generates interlocking sections of the bezel to allow it to be bigger than the printer
w = (box_width(type) + 2 * box_outset(type)) / cols;
h = (box_depth(type) + 2 * box_outset(type)) / rows;
tw = box_width(type) + 2 * box_outset(type);
w = tw / cols;
th = box_depth(type) + 2 * box_outset(type);
h = th / rows;
bw = box_outset(type) - bezel_clearance / 2;
bw2 = box_outset(type) + box_inset(type);
@@ -339,7 +359,7 @@ module box_bezel_section(type, bottom, rows, cols, x, y) { //! Generates interlo
render() difference() {
union() {
clip(xmin = 0, xmax = w, ymin = 0, ymax = h)
translate([box_width(type) / 2 + box_outset(type) - x * w, box_depth(type) / 2 + box_outset(type) - y * h, box_profile_overlap(type)])
translate([tw / 2 - x * w, th / 2 - y * h, box_profile_overlap(type)])
box_bezel(type, bottom);
if(x < cols - 1 && y == 0)
@@ -399,7 +419,6 @@ module box_bezel_section(type, bottom, rows, cols, x, y) { //! Generates interlo
}
}
module box_screw_hole_positions(type)
for(x = [-1, 1], y = [-1, 1])
translate([x * (box_width(type) / 2 - box_hole_inset(type)), y * (box_depth(type) / 2 - box_hole_inset(type))])
@@ -442,6 +461,96 @@ module box_shelf_blank(type, sheet = false) { //! Generates a 2D template for a
}
}
module box_shelf_screw_positions(type, screw_positions, thickness = 0, wall = undef) { //! Place children at the shelf screw positions
w = is_undef(wall) ? box_wall(type) : wall;
insert = box_shelf_insert(type);
translate_z(-insert_boss_radius(insert, w))
for(p = screw_positions)
multmatrix(p)
translate_z(thickness)
children();
}
module box_shelf_bracket(type, screw_positions, wall = undef) { //! Generates a shelf bracket, the first optional child is a 2D cutout and the second 3D cutouts
stl("shelf_bracket");
w = is_undef(wall) ? box_wall(type) : wall;
insert = box_shelf_insert(type);
lip = 2 * insert_boss_radius(insert, w);
width = insert_length(insert) + w;
module shape()
difference() {
square([box_width(type), box_depth(type)], center = true);
offset(bezel_clearance / 2)
box_corner_quadrants(type, box_width(type), box_depth(type));
if($children)
hflip()
children();
}
module boss()
translate_z(-width + eps)
linear_extrude(width - 2 * eps)
hull() {
circle4n(r = lip / 2 - eps);
translate([-lip / 2, -lip / 2 + eps])
square([lip, eps]);
}
difference() {
union() {
linear_extrude(w)
difference() {
shape()
if($children)
children(0);
round(2) offset(-width)
shape()
if($children)
children(0);
}
linear_extrude(lip)
difference() {
shape()
if($children)
children(0);
offset(-w)
shape()
if($children)
children(0);
}
hflip()
box_shelf_screw_positions(type, screw_positions, 0, w)
boss();
}
if($children > 1)
hflip()
children(1);
hflip()
box_shelf_screw_positions(type, screw_positions, 0, w)
insert_hole(insert, counterbore = 1, horizontal = true);
}
}
module box_shelf_bracket_section(type, rows, cols, x, y) { //! Generates sections of the shelf bracket to allow it to be bigger than the printer
tw = box_width(type);
w = tw / cols;
th = box_depth(type);
h = th / rows;
clip(xmin = 0, xmax = w, ymin = 0, ymax = h)
translate([tw / 2 - x * w, th / 2 - y * h])
children();
}
module box_left_blank(type, sheet = false) { //! Generates a 2D template for the left sheet, ```sheet``` can be set to override the type
dxf("box_left");

View File

@@ -110,12 +110,9 @@ function fixing_block_positions(type) = let(
function side_holes(type) = [for(p = fixing_block_positions(type), q = fixing_block_holes(bbox_screw(type))) p * q];
module drill_holes(type, t)
for(list = [corner_holes(type), side_holes(type)], p = list)
let(q = t * p)
if(abs(transform([0, 0, 0], q).z) < eps)
multmatrix(q)
drill(screw_clearance_radius(bbox_screw(type)), 0);
module bbox_drill_holes(type, t)
position_children(concat(corner_holes(type), side_holes(type)), t)
drill(screw_clearance_radius(bbox_screw(type)), 0);
module bbox_base_blank(type) { //! 2D template for the base
dxf(str(bbox_name(type), "_base"));
@@ -123,7 +120,7 @@ module bbox_base_blank(type) { //! 2D template for the base
difference() {
sheet_2D(bbox_base_sheet(type), bbox_width(type), bbox_depth(type), 1);
drill_holes(type, translate(bbox_height(type) / 2));
bbox_drill_holes(type, translate(bbox_height(type) / 2));
}
}
@@ -136,7 +133,7 @@ module bbox_top_blank(type) { //! 2D template for the top
translate([0, t / 2])
sheet_2D(bbox_top_sheet(type), bbox_width(type) + 2 * t, bbox_depth(type) + t);
drill_holes(type, translate(-bbox_height(type) / 2));
bbox_drill_holes(type, translate(-bbox_height(type) / 2));
}
}
@@ -154,7 +151,7 @@ module bbox_left_blank(type, sheet = false) { //! 2D template for the left side
translate([-t / 2, -bb / 2])
sheet_2D(subst_sheet(type, sheet), bbox_depth(type) + t, bbox_height(type) + bb);
drill_holes(type, rotate([0, 90, 90]) * translate([bbox_width(type) / 2, 0]));
bbox_drill_holes(type, rotate([0, 90, 90]) * translate([bbox_width(type) / 2, 0]));
}
}
@@ -168,7 +165,7 @@ module bbox_right_blank(type, sheet = false) { //! 2D template for the right sid
translate([t / 2, -bb / 2])
sheet_2D(subst_sheet(type, sheet), bbox_depth(type) + t, bbox_height(type) + bb);
drill_holes(type, rotate([0, 90, 90]) * translate([-bbox_width(type) / 2, 0]));
bbox_drill_holes(type, rotate([0, 90, 90]) * translate([-bbox_width(type) / 2, 0]));
}
}
@@ -183,7 +180,7 @@ module bbox_front_blank(type, sheet = false, width = 0) { //! 2D template for th
translate([0, (bt - bb) / 2])
sheet_2D(subst_sheet(type, sheet), max(bbox_width(type) + 2 * t, width), bbox_height(type) + bb + bt);
drill_holes(type, rotate([-90, 0, 0]) * translate([0, bbox_depth(type) / 2]));
bbox_drill_holes(type, rotate([-90, 0, 0]) * translate([0, bbox_depth(type) / 2]));
}
}
@@ -197,7 +194,7 @@ module bbox_back_blank(type, sheet = false) { //! 2D template for the back
translate([0, -bb / 2])
sheet_2D(subst_sheet(type, sheet), bbox_width(type), bbox_height(type) + bb);
drill_holes(type, rotate([-90, 0, 0]) * translate([0, -bbox_depth(type) / 2]));
bbox_drill_holes(type, rotate([-90, 0, 0]) * translate([0, -bbox_depth(type) / 2]));
}
}

141
readme.md
View File

@@ -26,22 +26,22 @@ See [usage](docs/usage.md) for requirements, installation instructions and a usa
<tr><td> <a href = "#Bulldogs">Bulldogs</a> </td><td> <a href = "#Leadnuts">Leadnuts</a> </td><td> <a href = "#SK_brackets">SK_brackets</a> </td><td> <a href = "#Door_hinge">Door_hinge</a> </td><td> <a href = "#Layout">Layout</a> </td><td> <a href = "#Sphere">Sphere</a> </td></tr>
<tr><td> <a href = "#Buttons">Buttons</a> </td><td> <a href = "#Light_strips">Light_strips</a> </td><td> <a href = "#SMDs">SMDs</a> </td><td> <a href = "#Door_latch">Door_latch</a> </td><td> <a href = "#Maths">Maths</a> </td><td> <a href = "#Teardrops">Teardrops</a> </td></tr>
<tr><td> <a href = "#Cable_strips">Cable_strips</a> </td><td> <a href = "#Linear_bearings">Linear_bearings</a> </td><td> <a href = "#SSRs">SSRs</a> </td><td> <a href = "#Fan_guard">Fan_guard</a> </td><td> <a href = "#Offset">Offset</a> </td><td></td></tr>
<tr><td> <a href = "#Circlips">Circlips</a> </td><td> <a href = "#Mains_sockets">Mains_sockets</a> </td><td> <a href = "#Screws">Screws</a> </td><td> <a href = "#Fixing_block">Fixing_block</a> </td><td> <a href = "#Quadrant">Quadrant</a> </td><td></td></tr>
<tr><td> <a href = "#Components">Components</a> </td><td> <a href = "#Microswitches">Microswitches</a> </td><td> <a href = "#Sealing_strip">Sealing_strip</a> </td><td> <a href = "#Flat_hinge">Flat_hinge</a> </td><td> <a href = "#Round">Round</a> </td><td></td></tr>
<tr><td> <a href = "#DIP">DIP</a> </td><td> <a href = "#Microview">Microview</a> </td><td> <a href = "#Sheets">Sheets</a> </td><td> <a href = "#Foot">Foot</a> </td><td> <a href = "#Rounded_cylinder">Rounded_cylinder</a> </td><td></td></tr>
<tr><td> <a href = "#D_connectors">D_connectors</a> </td><td> <a href = "#Modules">Modules</a> </td><td> <a href = "#Spades">Spades</a> </td><td> <a href = "#Handle">Handle</a> </td><td> <a href = "#Rounded_polygon">Rounded_polygon</a> </td><td></td></tr>
<tr><td> <a href = "#Displays">Displays</a> </td><td> <a href = "#Nuts">Nuts</a> </td><td> <a href = "#Spools">Spools</a> </td><td> <a href = "#PCB_mount">PCB_mount</a> </td><td> <a href = "#Sector">Sector</a> </td><td></td></tr>
<tr><td> <a href = "#Extrusion_brackets">Extrusion_brackets</a> </td><td> <a href = "#O_ring">O_ring</a> </td><td> <a href = "#Springs">Springs</a> </td><td> <a href = "#PSU_shroud">PSU_shroud</a> </td><td> <a href = "#Sweep">Sweep</a> </td><td></td></tr>
<tr><td> <a href = "#Extrusions">Extrusions</a> </td><td> <a href = "#Opengrab">Opengrab</a> </td><td> <a href = "#Stepper_motors">Stepper_motors</a> </td><td> <a href = "#Printed_box">Printed_box</a> </td><td> <a href = "#Thread">Thread</a> </td><td></td></tr>
<tr><td> <a href = "#Fans">Fans</a> </td><td> <a href = "#PCB">PCB</a> </td><td> <a href = "#Swiss_clips">Swiss_clips</a> </td><td> <a href = "#Ribbon_clamp">Ribbon_clamp</a> </td><td> <a href = "#Tube">Tube</a> </td><td></td></tr>
<tr><td> <a href = "#Fuseholder">Fuseholder</a> </td><td> <a href = "#PCBs">PCBs</a> </td><td> <a href = "#Toggles">Toggles</a> </td><td> <a href = "#SSR_shroud">SSR_shroud</a> </td><td></td><td></td></tr>
<tr><td> <a href = "#Geared_steppers">Geared_steppers</a> </td><td> <a href = "#PSUs">PSUs</a> </td><td> <a href = "#Transformers">Transformers</a> </td><td> <a href = "#Screw_knob">Screw_knob</a> </td><td></td><td></td></tr>
<tr><td> <a href = "#Green_terminals">Green_terminals</a> </td><td> <a href = "#Panel_meters">Panel_meters</a> </td><td> <a href = "#Tubings">Tubings</a> </td><td> <a href = "#Socket_box">Socket_box</a> </td><td></td><td></td></tr>
<tr><td> <a href = "#Hot_ends">Hot_ends</a> </td><td> <a href = "#Pillars">Pillars</a> </td><td> <a href = "#Variacs">Variacs</a> </td><td> <a href = "#Strap_handle">Strap_handle</a> </td><td></td><td></td></tr>
<tr><td> <a href = "#Hygrometer">Hygrometer</a> </td><td> <a href = "#Pin_headers">Pin_headers</a> </td><td> <a href = "#Veroboard">Veroboard</a> </td><td></td><td></td><td></td></tr>
<tr><td> <a href = "#IECs">IECs</a> </td><td> <a href = "#Pulleys">Pulleys</a> </td><td> <a href = "#Washers">Washers</a> </td><td></td><td></td><td></td></tr>
<tr><td> <a href = "#Inserts">Inserts</a> </td><td></td><td> <a href = "#Wire">Wire</a> </td><td></td><td></td><td></td></tr>
<tr><td></td><td></td><td> <a href = "#Zipties">Zipties</a> </td><td></td><td></td><td></td></tr>
<tr><td> <a href = "#Cameras">Cameras</a> </td><td> <a href = "#Mains_sockets">Mains_sockets</a> </td><td> <a href = "#Screws">Screws</a> </td><td> <a href = "#Fixing_block">Fixing_block</a> </td><td> <a href = "#Quadrant">Quadrant</a> </td><td></td></tr>
<tr><td> <a href = "#Circlips">Circlips</a> </td><td> <a href = "#Microswitches">Microswitches</a> </td><td> <a href = "#Sealing_strip">Sealing_strip</a> </td><td> <a href = "#Flat_hinge">Flat_hinge</a> </td><td> <a href = "#Round">Round</a> </td><td></td></tr>
<tr><td> <a href = "#Components">Components</a> </td><td> <a href = "#Microview">Microview</a> </td><td> <a href = "#Sheets">Sheets</a> </td><td> <a href = "#Foot">Foot</a> </td><td> <a href = "#Rounded_cylinder">Rounded_cylinder</a> </td><td></td></tr>
<tr><td> <a href = "#DIP">DIP</a> </td><td> <a href = "#Modules">Modules</a> </td><td> <a href = "#Spades">Spades</a> </td><td> <a href = "#Handle">Handle</a> </td><td> <a href = "#Rounded_polygon">Rounded_polygon</a> </td><td></td></tr>
<tr><td> <a href = "#D_connectors">D_connectors</a> </td><td> <a href = "#Nuts">Nuts</a> </td><td> <a href = "#Spools">Spools</a> </td><td> <a href = "#PCB_mount">PCB_mount</a> </td><td> <a href = "#Sector">Sector</a> </td><td></td></tr>
<tr><td> <a href = "#Displays">Displays</a> </td><td> <a href = "#O_ring">O_ring</a> </td><td> <a href = "#Springs">Springs</a> </td><td> <a href = "#PSU_shroud">PSU_shroud</a> </td><td> <a href = "#Sweep">Sweep</a> </td><td></td></tr>
<tr><td> <a href = "#Extrusion_brackets">Extrusion_brackets</a> </td><td> <a href = "#Opengrab">Opengrab</a> </td><td> <a href = "#Stepper_motors">Stepper_motors</a> </td><td> <a href = "#Printed_box">Printed_box</a> </td><td> <a href = "#Thread">Thread</a> </td><td></td></tr>
<tr><td> <a href = "#Extrusions">Extrusions</a> </td><td> <a href = "#PCB">PCB</a> </td><td> <a href = "#Swiss_clips">Swiss_clips</a> </td><td> <a href = "#Ribbon_clamp">Ribbon_clamp</a> </td><td> <a href = "#Tube">Tube</a> </td><td></td></tr>
<tr><td> <a href = "#Fans">Fans</a> </td><td> <a href = "#PCBs">PCBs</a> </td><td> <a href = "#Toggles">Toggles</a> </td><td> <a href = "#SSR_shroud">SSR_shroud</a> </td><td></td><td></td></tr>
<tr><td> <a href = "#Fuseholder">Fuseholder</a> </td><td> <a href = "#PSUs">PSUs</a> </td><td> <a href = "#Transformers">Transformers</a> </td><td> <a href = "#Screw_knob">Screw_knob</a> </td><td></td><td></td></tr>
<tr><td> <a href = "#Geared_steppers">Geared_steppers</a> </td><td> <a href = "#Panel_meters">Panel_meters</a> </td><td> <a href = "#Tubings">Tubings</a> </td><td> <a href = "#Socket_box">Socket_box</a> </td><td></td><td></td></tr>
<tr><td> <a href = "#Green_terminals">Green_terminals</a> </td><td> <a href = "#Pillars">Pillars</a> </td><td> <a href = "#Variacs">Variacs</a> </td><td> <a href = "#Strap_handle">Strap_handle</a> </td><td></td><td></td></tr>
<tr><td> <a href = "#Hot_ends">Hot_ends</a> </td><td> <a href = "#Pin_headers">Pin_headers</a> </td><td> <a href = "#Veroboard">Veroboard</a> </td><td></td><td></td><td></td></tr>
<tr><td> <a href = "#Hygrometer">Hygrometer</a> </td><td> <a href = "#Pulleys">Pulleys</a> </td><td> <a href = "#Washers">Washers</a> </td><td></td><td></td><td></td></tr>
<tr><td> <a href = "#IECs">IECs</a> </td><td></td><td> <a href = "#Wire">Wire</a> </td><td></td><td></td><td></td></tr>
<tr><td> <a href = "#Inserts">Inserts</a> </td><td></td><td> <a href = "#Zipties">Zipties</a> </td><td></td><td></td><td></td></tr>
</table>
---
@@ -235,7 +235,7 @@ Individual teeth are not drawn, instead they are represented by a lighter colour
### Modules
| Module | Description |
|:--- |:--- |
| ```belt(type, points, gap = 0, gap_pt = undef, belt_colour = grey20, tooth_colour = grey50)``` | Draw a belt path given a set of points and pitch radii where the pulleys are. Closed loop unless a gap is specified |
| ```belt(type, points, gap = 0, gap_pt = undef, belt_colour = grey(20)``` | Draw a belt path given a set of points and pitch radii where the pulleys are. Closed loop unless a gap is specified |
![belts](tests/png/belts.png)
@@ -430,6 +430,43 @@ When the sides are constrained then a circular model is more accurate.
| 3 | ```cable_strip(20, 25, 100, 30)``` | Polypropylene strip 189mm x 24mm x 0.8mm |
<a href="#top">Top</a>
---
<a name="Cameras"></a>
## Cameras
PCB cameras.
[vitamins/cameras.scad](vitamins/cameras.scad) Object definitions.
[vitamins/camera.scad](vitamins/camera.scad) Implementation.
[tests/cameras.scad](tests/cameras.scad) Code for this example.
### Properties
| Function | Description |
|:--- |:--- |
| ```camera_connector_pos(type)``` | The flex connector block for the camera itself's position |
| ```camera_connector_size(type)``` | The flex connector block for the camera itself's size |
| ```camera_lens(type)``` | Stack of lens parts, can be round, rectanular or rounded rectangular, with optional tapered aperture |
| ```camera_lens_offset(type)``` | Offset of the lens center from the PCB centre |
| ```camera_pcb(type)``` | The PCB part of the camera |
### Modules
| Module | Description |
|:--- |:--- |
| ```camera(type)``` | Draw specified PCB camera |
![cameras](tests/png/cameras.png)
### Vitamins
| Qty | Module call | BOM entry |
| ---:|:--- |:---|
| 1 | ```camera(rpi_camera_v1)``` | Raspberry Pi camera V1 |
| 1 | ```camera(rpi_camera)``` | Raspberry Pi focusable camera |
<a href="#top">Top</a>
---
@@ -1554,9 +1591,10 @@ The `light_strip_clip()` module makes a clip to go around the light that can be
| Function | Description |
|:--- |:--- |
| ```light_strip_clip_depth(light)``` | Depth of the clip |
| ```light_strip_clip_length(light)``` | Outside length |
| ```light_strip_clip_length(light)``` | Outside length of clip |
| ```light_strip_clip_slot(light)``` | Clip slot size |
| ```light_strip_clip_width(light)``` | Outside width |
| ```light_strip_clip_wall()``` | Clip wall thickness |
| ```light_strip_clip_width(light)``` | Outside width of clip |
| ```light_strip_cut_length(type, segs)``` | Calculate cut length given segments |
| ```light_strip_segments(type, max_length)``` | Calculate the maximum number of segments that fit in max_length |
@@ -2033,6 +2071,10 @@ PCBs and perfboard with optional components. The shape can be a rectangle with o
### Properties
| Function | Description |
|:--- |:--- |
| ```ff_back(type)``` | Flat flex back section size |
| ```ff_latch(type)``` | Flat flex latch size |
| ```ff_mid(type)``` | Flat flex middle section size |
| ```ff_slot(type)``` | Flat flex slot size |
| ```hdmi_depth(type)``` | Front to back depth |
| ```hdmi_height(type)``` | Outside height above the PCB |
| ```hdmi_height1(type)``` | Inside height at the sides |
@@ -2062,6 +2104,7 @@ PCBs and perfboard with optional components. The shape can be a rectangle with o
| ```pcb_coord(type, p)``` | Convert offsets from the edge to coordinates relative to the centre |
| ```pcb_grid_pos(type, x, y, z = 0)``` | Returns a pcb grid position |
| ```pcb_screw(type, cap = hs_cap)``` | Mounting screw type |
| ```pcb_size(type)``` | Length, width and thickness in a vector |
### Modules
| Module | Description |
@@ -2070,7 +2113,7 @@ PCBs and perfboard with optional components. The shape can be a rectangle with o
| ```block(size, colour, makes_cutout, cutouts)``` | Draw a coloured cube to represent a random PCB component |
| ```buzzer(height, diameter, colour)``` | Draw PCB buzzer with specified height, diameter and colour |
| ```chip(length, width, thickness, colour, cutout = false)``` | Draw a coloured cube to represent a chip, or other rectangular component |
| ```flat_flex(cutout = false)``` | Draw flat flexistrip connector as used on RPI0 |
| ```flat_flex(type, cutout = false)``` | Draw flat flexistrip connector as used on RPI0 |
| ```flex(cutout = false)``` | Draw flexistrip connector |
| ```hdmi(type, cutout = false)``` | Draw HDMI socket |
| ```jack(cutout = false)``` | Draw 3.5mm jack |
@@ -2125,7 +2168,11 @@ PCBs and perfboard with optional components. The shape can be a rectangle with o
| 1 | ```ax_res(res1_4, 10000)``` | Resistor 10000 Ohms 5% 0.25W |
| 1 | ```ax_res(res1_2, 100000)``` | Resistor 100000 Ohms 5% 0.5W |
| 1 | ```ax_res(res1_8, 1e+6, tol = 1)``` | Resistor 1e+6 Ohms 1% 0.125W |
| 1 | ```smd_led(LED0603, orange)``` | SMD LED 0603 orange |
| 1 | ```smd_led(LED0805, red)``` | SMD LED 0805 red |
| 1 | ```smd_resistor(RES0603, 1K)``` | SMD resistor 0603 1K 0.1W |
| 1 | ```smd_resistor(RES0805, 1K)``` | SMD resistor 0805 1K 0.125W |
| 1 | ```smd_resistor(RES1206, 1K)``` | SMD resistor 1206 1K 0.25W |
| 1 | ```square_button(button_6mm)``` | Square button 6mm |
| 1 | ```pcb(TMC2130)``` | TMC2130 |
| 1 | ```green_terminal(gt_5p08, 2)``` | Terminal block 2 way 0.2" |
@@ -2157,6 +2204,10 @@ PCBs and perfboard with optional components. The shape can be a rectangle with o
### Properties
| Function | Description |
|:--- |:--- |
| ```ff_back(type)``` | Flat flex back section size |
| ```ff_latch(type)``` | Flat flex latch size |
| ```ff_mid(type)``` | Flat flex middle section size |
| ```ff_slot(type)``` | Flat flex slot size |
| ```hdmi_depth(type)``` | Front to back depth |
| ```hdmi_height(type)``` | Outside height above the PCB |
| ```hdmi_height1(type)``` | Inside height at the sides |
@@ -2186,6 +2237,7 @@ PCBs and perfboard with optional components. The shape can be a rectangle with o
| ```pcb_coord(type, p)``` | Convert offsets from the edge to coordinates relative to the centre |
| ```pcb_grid_pos(type, x, y, z = 0)``` | Returns a pcb grid position |
| ```pcb_screw(type, cap = hs_cap)``` | Mounting screw type |
| ```pcb_size(type)``` | Length, width and thickness in a vector |
### Modules
| Module | Description |
@@ -2194,7 +2246,7 @@ PCBs and perfboard with optional components. The shape can be a rectangle with o
| ```block(size, colour, makes_cutout, cutouts)``` | Draw a coloured cube to represent a random PCB component |
| ```buzzer(height, diameter, colour)``` | Draw PCB buzzer with specified height, diameter and colour |
| ```chip(length, width, thickness, colour, cutout = false)``` | Draw a coloured cube to represent a chip, or other rectangular component |
| ```flat_flex(cutout = false)``` | Draw flat flexistrip connector as used on RPI0 |
| ```flat_flex(type, cutout = false)``` | Draw flat flexistrip connector as used on RPI0 |
| ```flex(cutout = false)``` | Draw flexistrip connector |
| ```hdmi(type, cutout = false)``` | Draw HDMI socket |
| ```jack(cutout = false)``` | Draw 3.5mm jack |
@@ -2591,10 +2643,10 @@ Linear rails with carriages.
### Modules
| Module | Description |
|:--- |:--- |
| ```carriage(type, rail, end_colour = grey20, wiper_colour = grey20)``` | Draw the specified carriage |
| ```carriage(type, rail, end_colour = grey(20)``` | Draw the specified carriage |
| ```carriage_hole_positions(type)``` | Position children over screw holes |
| ```rail(type, length)``` | Draw the specified rail |
| ```rail_assembly(type, length, pos, carriage_end_colour = grey20, carriage_wiper_colour = grey20)``` | Rail and carriage assembly |
| ```rail_assembly(type, length, pos, carriage_end_colour = grey(20)``` | Rail and carriage assembly |
| ```rail_hole_positions(type, length, first = 0, screws = 100, both_ends = true)``` | Position children over screw holes |
| ```rail_screws(type, length, thickness, screws = 100)``` | Place screws in the rail |
@@ -2603,24 +2655,27 @@ Linear rails with carriages.
### Vitamins
| Qty | Module call | BOM entry |
| ---:|:--- |:---|
| 1 | ```rail(MGN15, 260)``` | Linear rail MGN15 x 260mm |
| 1 | ```rail(MGN12, 200)``` | Linear rail MGN12 x 200mm |
| 1 | ```rail(MGN12H, 200)``` | Linear rail MGN12H x 200mm |
| 1 | ```rail(MGN15, 200)``` | Linear rail MGN15 x 200mm |
| 1 | ```rail(MGN5, 200)``` | Linear rail MGN5 x 200mm |
| 1 | ```rail(MGN7, 200)``` | Linear rail MGN7 x 200mm |
| 1 | ```rail(MGN9, 200)``` | Linear rail MGN9 x 200mm |
| 1 | ```rail(SSR15, 200)``` | Linear rail SSR15 x 200mm |
| 26 | ```nut(M2_nut, nyloc = true)``` | Nut M2 x 1.6mm nyloc |
| 17 | ```nut(M3_nut, nyloc = true)``` | Nut M3 x 2.4mm nyloc |
| 31 | ```nut(M3_nut, nyloc = true)``` | Nut M3 x 2.4mm nyloc |
| 4 | ```nut(M4_nut, nyloc = true)``` | Nut M4 x 3.2mm nyloc |
| 11 | ```screw(M2_cap_screw, 10)``` | Screw M2 cap x 10mm |
| 15 | ```screw(M2_cs_cap_screw, 10)``` | Screw M2 cs cap x 10mm |
| 8 | ```screw(M3_cap_screw, 10)``` | Screw M3 cap x 10mm |
| 5 | ```screw(M3_cap_screw, 16)``` | Screw M3 cap x 16mm |
| 12 | ```screw(M3_cap_screw, 12)``` | Screw M3 cap x 12mm |
| 3 | ```screw(M3_cap_screw, 16)``` | Screw M3 cap x 16mm |
| 2 | ```screw(M3_cs_cap_screw, 12)``` | Screw M3 cs cap x 12mm |
| 2 | ```screw(M3_cs_cap_screw, 16)``` | Screw M3 cs cap x 16mm |
| 6 | ```screw(M3_cs_cap_screw, 16)``` | Screw M3 cs cap x 16mm |
| 2 | ```screw(M4_cap_screw, 16)``` | Screw M4 cap x 16mm |
| 2 | ```screw(M4_cs_cap_screw, 20)``` | Screw M4 cs cap x 20mm |
| 26 | ```washer(M2_washer)``` | Washer M2 x 5mm x 0.3mm |
| 17 | ```washer(M3_washer)``` | Washer M3 x 7mm x 0.5mm |
| 31 | ```washer(M3_washer)``` | Washer M3 x 7mm x 0.5mm |
| 4 | ```washer(M4_washer)``` | Washer M4 x 9mm x 0.8mm |
@@ -3080,11 +3135,14 @@ Surface mount components for PCBs.
|:--- |:--- |
| ```smd_led_lens(type)``` | Lens length width and height |
| ```smd_led_size(type)``` | Body length, width and height |
| ```smd_res_end_cap(type)``` | End cap width |
| ```smd_res_power(type)``` | Power rating in Watts |
| ```smd_res_size(type)``` | Body length, width and height |
### Functions
| Function | Description |
|:--- |:--- |
| ```smd_100th(x)``` | Convert dimesion to 1/100" notation |
| ```smd_100th(x)``` | Convert dimension to 1/100" notation |
| ```smd_led_height(type)``` | Total height |
| ```smd_size(size)``` | Convert size to 1/100" notation |
@@ -3092,13 +3150,18 @@ Surface mount components for PCBs.
| Module | Description |
|:--- |:--- |
| ```smd_led(type, colour, cutout)``` | Draw an SMD LED with specified ```colour``` |
| ```smd_resistor(type, value)``` | Draw an SMD resistor with specified value |
![smds](tests/png/smds.png)
### Vitamins
| Qty | Module call | BOM entry |
| ---:|:--- |:---|
| 1 | ```smd_led(LED0805, green)``` | SMD LED 0805 green |
| 1 | ```smd_led(LED0603, green)``` | SMD LED 0603 green |
| 1 | ```smd_led(LED0805, blue)``` | SMD LED 0805 blue |
| 1 | ```smd_resistor(RES0603, 1R0)``` | SMD resistor 0603 1R0 0.1W |
| 1 | ```smd_resistor(RES0805, 10M)``` | SMD resistor 0805 10M 0.125W |
| 1 | ```smd_resistor(RES1206, 100K)``` | SMD resistor 1206 100K 0.25W |
<a href="#top">Top</a>
@@ -3872,6 +3935,7 @@ Normally the side sheets are the same type but they can be overridden individual
| ```box_height(type)``` | Internal height |
| ```box_screw(type)``` | Screw type to be used at the corners |
| ```box_sheets(type)``` | Sheet type used for the sides |
| ```box_shelf_screw(type)``` | Screw type to hold a shelf |
| ```box_top_sheet(type)``` | Sheet type for the top |
| ```box_wall(type)``` | Wall thickness of 3D parts |
| ```box_width(type)``` | Internal width |
@@ -3879,7 +3943,7 @@ Normally the side sheets are the same type but they can be overridden individual
### Functions
| Function | Description |
|:--- |:--- |
| ```box(screw, wall, sheets, top_sheet, base_sheet, size, feet = false)``` | Construct a property list for a box. |
| ```box(screw, wall, sheets, top_sheet, base_sheet, size, feet = false, shelf_screw = M3_dome_screw)``` | Construct a property list for a box. |
| ```box_bezel_height(type, bottom)``` | Bezel height for top or bottom |
| ```box_corner_gap(type)``` | Gap between box_sheets at the corners to connect inside and outside profiles |
| ```box_inset(type)``` | How much the bezel intrudes on the specified width and length, away from the corners |
@@ -3899,6 +3963,7 @@ Normally the side sheets are the same type but they can be overridden individual
| ```box_corner_profile(type)``` | Generates the corner profile STL for 3D printing. |
| ```box_corner_profile_2D(type)``` | The 2D shape of the corner profile. |
| ```box_corner_profile_section(type, section, sections)``` | Generates interlocking sections of the corner profile to allow it to be taller than the printer |
| ```box_corner_profile_sections(type, section, sections)``` | Generate four copies of a corner profile section |
| ```box_front(type)``` | Default front, can be overridden to customise |
| ```box_front_blank(type, sheet = false)``` | Generates a 2D template for the front sheet, ```sheet``` can be set to override the type |
| ```box_left(type)``` | Default left side, can be overridden to customise |
@@ -3906,6 +3971,9 @@ Normally the side sheets are the same type but they can be overridden individual
| ```box_right(type)``` | Default right side, can be overridden to customise |
| ```box_right_blank(type, sheet = false)``` | Generates a 2D template for the right sheet, ```sheet``` can be set to override the type |
| ```box_shelf_blank(type, sheet = false)``` | Generates a 2D template for a shelf sheet |
| ```box_shelf_bracket(type, screw_positions, wall = undef)``` | Generates a shelf bracket, the first optional child is a 2D cutout and the second 3D cutouts |
| ```box_shelf_bracket_section(type, rows, cols, x, y)``` | Generates sections of the shelf bracket to allow it to be bigger than the printer |
| ```box_shelf_screw_positions(type, screw_positions, thickness = 0, wall = undef)``` | Place children at the shelf screw positions |
| ```box_top(type)``` | Default top, can be overridden to customise |
| ```box_top_blank(type)``` | Generates a 2D template for the top sheet |
| ```grill(width, height, r = 1000, poly = false, h = 0)``` | A staggered array of 5mm holes to make grills in sheets. Can be constrained to be circular. Set ```poly``` ```true``` for printing, ```false``` for milling. |
@@ -5211,12 +5279,18 @@ Maths utilities for manipulating vectors and matrices.
| Function | Description |
|:--- |:--- |
| ```angle_between(v1, v2)``` | Return the angle between two vectors |
| ```augment(m)``` | Augment a matrix by adding an identity matrix to the right |
| ```euler(R)``` | Convert a rotation matrix to a Euler rotation vector. |
| ```identity(n, x = 1)``` | Construct an arbitrary size identity matrix |
| ```invert(m)``` | Invert a matrix |
| ```nearly_zero(x)``` | True if x is close to zero |
| ```reverse(v)``` | Reverse a vector |
| ```rot3_z(a)``` | Generate a 3x3 matrix to rotate around z |
| ```rotate(a, v)``` | Generate a 4x4 rotation matrix, ```a``` can be a vector of three angles or a single angle around ```z```, or around axis ```v``` |
| ```rowswap(m, i, j)``` | Swap two rows of a matrix |
| ```scale(v)``` | Generate a 4x4 matrix that scales by ```v```, which can be a vector of xyz factors or a scalar to scale all axes equally |
| ```solve(m, i = 0, j = 0)``` | Solve each row ensuring diagonal is not zero |
| ```solve_row(m, i)``` | Make diagonal one by dividing the row by it and subtract from other rows to make column zero |
| ```transform(v, m)``` | Apply 4x4 transform to a 3 vector by extending it and cropping it again |
| ```transform_points(path, m)``` | Apply transform to a path |
| ```translate(v)``` | Generate a 4x4 translation matrix, ```v``` can be ```[x, y]```, ```[x, y, z]``` or ```z``` |
@@ -5225,6 +5299,11 @@ Maths utilities for manipulating vectors and matrices.
| ```vec3(v)``` | Return a 3 vector with the first three elements of ```v``` |
| ```vec4(v)``` | Return a 4 vector with the first three elements of ```v``` |
### Modules
| Module | Description |
|:--- |:--- |
| ```position_children(list, t)``` | Position children if they are on the Z = 0 plane when transformed by t |
![maths](tests/png/maths.png)

View File

@@ -27,6 +27,7 @@ import c14n_stl
from set_config import *
from deps import *
from shutil import copyfile
import re
source_dirs = { "stl" : "platters", "dxf" : "panels" }
target_dirs = { "stl" : "printed", "dxf" : "routed" }
@@ -38,43 +39,54 @@ def plateup(target, part_type, usage = None):
top_dir = set_config(target, usage)
parts_dir = top_dir + part_type + 's'
target_dir = parts_dir + '/' + target_dirs[part_type]
source_dir = top_dir + source_dirs[part_type]
deps_dir = source_dir + "/deps"
if not os.path.isdir(source_dir):
return
if not os.path.isdir(target_dir):
os.makedirs(target_dir)
if not os.path.isdir(deps_dir):
os.makedirs(deps_dir)
source_dir1 = source_dirs[part_type]
source_dir2 = top_dir + source_dirs[part_type]
#
# Decide which files to make
#
sources = [file for file in os.listdir(source_dir) if file.endswith('.scad')]
#
# Run OpenSCAD on the source files to make the targets
# Loop through source directories
#
used = []
for src in sources:
src_file = source_dir + '/' + src
part_file = target_dir + '/' + src[:-4] + part_type
dname = deps_name(deps_dir, src)
changed = check_deps(part_file, dname)
if changed:
print(changed)
openscad.run("-D$bom=1", "-d", dname, "-o", part_file, src_file)
if part_type == 'stl':
c14n_stl.canonicalise(part_file)
log_name = 'openscad.log'
else:
log_name = 'openscad.echo'
openscad.run_silent("-D$bom=1", "-o", log_name, src_file)
all_sources = []
for dir in [source_dir1, source_dir2]:
if not os.path.isdir(dir):
continue
if not os.path.isdir(target_dir):
os.makedirs(target_dir)
#
# Add the files on the BOM to the used list
# Make the deps dir
#
with open(log_name) as file:
for line in file.readlines():
if line.startswith('ECHO: "~') and line.endswith('.' + part_type + '"\n'):
used.append(line[8:-2])
deps_dir = dir + "/deps"
if not os.path.isdir(deps_dir):
os.makedirs(deps_dir)
#
# Decide which files to make
#
sources = [file for file in os.listdir(dir) if file.endswith('.scad')]
all_sources += sources
#
# Run OpenSCAD on the source files to make the targets
#
for src in sources:
src_file = dir + '/' + src
part_file = target_dir + '/' + src[:-4] + part_type
dname = deps_name(deps_dir, src)
changed = check_deps(part_file, dname)
if changed:
print(changed)
openscad.run("-D$bom=1", "-d", dname, "-o", part_file, src_file)
if part_type == 'stl':
c14n_stl.canonicalise(part_file)
log_name = 'openscad.log'
else:
log_name = 'openscad.echo'
openscad.run_silent("-D$bom=1", "-o", log_name, src_file)
#
# Add the files on the BOM to the used list
#
with open(log_name) as file:
for line in file.readlines():
match = re.match(r'^ECHO: "~(.*?\.' + part_type + r').*"$', line)
if match:
used.append(match.group(1))
#
# Copy file that are not included
#
@@ -90,7 +102,7 @@ def plateup(target, part_type, usage = None):
#
# Remove any cruft
#
targets = [file[:-4] + part_type for file in sources]
targets = [file[:-4] + part_type for file in all_sources]
for file in os.listdir(target_dir):
if file.endswith('.' + part_type):
if not file in targets and not file in copied:

View File

@@ -58,8 +58,12 @@ test_pcb = ["TestPCB", "Test PCB",
// components
[
[ 20, -5, 180, "trimpot10"],
[ 20, -15, 0, "trimpot10", true],
[ 10, 2, 0, "smd_led", LED0805, "red"],
[ 20, -15, 90, "trimpot10", true],
[ 10, 2, 90, "smd_led", LED0805, "red"],
[ 13, 2, 90, "smd_led", LED0603, "orange"],
[ 16, 2, 90, "smd_res", RES1206, "1K"],
[ 19, 2, 90, "smd_res", RES0805, "1K"],
[ 22, 2, 90, "smd_res", RES0603, "1K"],
[ 10, 10, 0, "2p54header", 4, 1],
[ 25, 10, 0, "2p54header", 5, 1, false, "blue" ],
[ 10, 20, 0, "2p54boxhdr", 4, 2],
@@ -91,7 +95,8 @@ test_pcb = ["TestPCB", "Test PCB",
[ 80, 22, 0, "ax_res", res1_2, 10, 10, inch(0.2)],
[ 60, 3, 0, "flex"],
[ 50, 15, 0, "flat_flex"],
[ 50, 15, -90, "flat_flex"],
[ 40, 15, -90, "flat_flex", true],
[ 60, 35, 0, "D_plug", DCONN9],
[ 50, 50, 0, "molex_hdr", 2],

View File

@@ -21,9 +21,14 @@ use <../utils/layout.scad>
include <../vitamins/smds.scad>
module smds()
layout([for(l = smd_leds) smd_led_size(l).x], 1)
smd_led(smd_leds[$i], ["green", "blue", "red"][$i % 3]);
module smds() {
layout([for(r = smd_resistors) smd_res_size(r).x], 1)
smd_resistor(smd_resistors[$i], ["1R0", "10M", "100K"][$i % 3]);
translate([0, 3])
layout([for(l = smd_leds) smd_led_size(l).x], 1)
smd_led(smd_leds[$i], ["green", "blue", "red"][$i % 3]);
}
if($preview)
smds();

31
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@@ -0,0 +1,31 @@
//
// NopSCADlib Copyright Chris Palmer 2020
// nop.head@gmail.com
// hydraraptor.blogspot.com
//
// This file is part of NopSCADlib.
//
// NopSCADlib is free software: you can redistribute it and/or modify it under the terms of the
// GNU General Public License as published by the Free Software Foundation, either version 3 of
// the License, or (at your option) any later version.
//
// NopSCADlib is distributed in the hope that it will be useful, but WITHOUT ANY WARRANTY;
// without even the implied warranty of MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE.
// See the GNU General Public License for more details.
//
// You should have received a copy of the GNU General Public License along with NopSCADlib.
// If not, see <https://www.gnu.org/licenses/>.
//
include <../core.scad>
use <../utils/layout.scad>
include <../vitamins/cameras.scad>
use <../vitamins/pcb.scad>
module cameras()
layout([for(c = cameras) pcb_length(camera_pcb(c))], 10, false) let(c = cameras[$i])
camera(c);
if($preview)
cameras();

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@@ -25,10 +25,10 @@ use <../vitamins/nut.scad>
sheet = 3;
module rails()
layout([for(l = rails) carriage_width(rail_carriage(l))], 25)
layout([for(l = rails) carriage_width(rail_carriage(l))], 20)
rotate(-90) {
rail = rails[$i];
length = rail == MGN15 ? 260 : 200;
length = 200;
screw = rail_screw(rail);
nut = screw_nut(screw);
washer = screw_washer(screw);

View File

@@ -28,12 +28,12 @@ use <global.scad>
module use_stl(name) { //! Import an STL to make a build platter
stl(name);
import(str("../stls/", name, ".stl"));
path = is_undef($target) ? "../stls/" : str("../", $target, "/stls/");
import(str(path, name, ".stl"));
}
module use_dxf(name) { //! Import a DXF to make a build panel
dxf(name);
import(str("../dxfs/", name, ".dxf"));
path = is_undef($target) ? "../dxfs/" : str("../", $target, "/dxfs/");
import(str(path, name, ".dxf"));
}

View File

@@ -28,6 +28,6 @@ function layout_offset(widths, i, gap = 2) = //! Calculate the offset for the ``
module layout(widths, gap = 2, no_offset = false) //! Layout children passing ```$i```
translate([no_offset ? -widths[0] / 2 : 0, 0])
for($i = [0 : len(widths) - 1])
for($i = [0 : 1 : len(widths) - 1])
translate([layout_offset(widths, $i, gap), 0])
children();

View File

@@ -90,3 +90,42 @@ function euler(R) = let(ay = asin(-R[2][0]), cy = cos(ay)) //! Convert a rotatio
cy ? [ atan2(R[2][1] / cy, R[2][2] / cy), ay, atan2(R[1][0] / cy, R[0][0] / cy) ]
: R[2][0] < 0 ? [atan2( R[0][1], R[0][2]), 180, 0]
: [atan2(-R[0][1], -R[0][2]), -180, 0];
module position_children(list, t) //! Position children if they are on the Z = 0 plane when transformed by t
for(p = list)
let(q = t * p)
if(abs(transform([0, 0, 0], q).z) < 0.01)
multmatrix(q)
children();
// Matrix inversion: https://www.mathsisfun.com/algebra/matrix-inverse-row-operations-gauss-jordan.html
function augment(m) = let(l = len(m), n = identity(l)) [ //! Augment a matrix by adding an identity matrix to the right
for(i = [0 : l - 1])
concat(m[i], n[i])
];
function rowswap(m, i, j) = [ //! Swap two rows of a matrix
for(k = [0 : len(m) - 1])
k == i ? m[j] : k == j ? m[i] : m[k]
];
function solve_row(m, i) = let(diag = m[i][i]) [ //! Make diagonal one by dividing the row by it and subtract from other rows to make column zero
for(j = [0 : len(m) - 1])
i == j ? m[j] / diag : m[j] - m[i] * m[j][i] / diag
];
function nearly_zero(x) = abs(x) < 1e-5; //! True if x is close to zero
function solve(m, i = 0, j = 0) = //! Solve each row ensuring diagonal is not zero
i < len(m) ?
assert(i + j < len(m), "matrix is singular")
solve(!nearly_zero(m[i + j][i]) ? solve_row(j ? rowswap(m, i, i + j) : m, i) : solve(m, i, j + 1), i + 1)
: m;
function invert(m) = let(n =len(m), m = solve(augment(m))) [ //! Invert a matrix
for(i = [0 : n - 1]) [
for(j = [n : 2 * n - 1])
each m[i][j]
]
];

89
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@@ -0,0 +1,89 @@
//
// NopSCADlib Copyright Chris Palmer 2020
// nop.head@gmail.com
// hydraraptor.blogspot.com
//
// This file is part of NopSCADlib.
//
// NopSCADlib is free software: you can redistribute it and/or modify it under the terms of the
// GNU General Public License as published by the Free Software Foundation, either version 3 of
// the License, or (at your option) any later version.
//
// NopSCADlib is distributed in the hope that it will be useful, but WITHOUT ANY WARRANTY;
// without even the implied warranty of MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE.
// See the GNU General Public License for more details.
//
// You should have received a copy of the GNU General Public License along with NopSCADlib.
// If not, see <https://www.gnu.org/licenses/>.
//
//
//! PCB cameras.
//
include <../utils/core/core.scad>
use <pcb.scad>
function camera_pcb(type) = type[2]; //! The PCB part of the camera
function camera_lens_offset(type) = type[3]; //! Offset of the lens center from the PCB centre
function camera_lens(type) = type[4]; //! Stack of lens parts, can be round, rectanular or rounded rectangular, with optional tapered aperture
function camera_connector_pos(type) = type[5]; //! The flex connector block for the camera itself's position
function camera_connector_size(type)= type[6]; //! The flex connector block for the camera itself's size
module camera_lens(type, offset = 0)
color(grey(20))
translate(camera_lens_offset(type))
for(p = camera_lens(type)) {
size = p[0];
r = p[1] + offset;
app = p[2];
if(size.x)
rounded_rectangle(size + [2 * offset, 2 * offset, round_to_layer(offset)], r, center = false);
else
translate_z(size.y)
rotate_extrude()
difference() {
square([r, size.z + round_to_layer(offset)]);
if(app)
translate([0, size.z])
hull() {
translate([0, -eps])
square([app.y, eps * 2]);
translate([0, -app.z])
square([app.x, app.z]);
}
}
}
module camera(type) { //! Draw specified PCB camera
vitamin(str("camera(", type[0], "): ", type[1]));
pcb = camera_pcb(type);
not_on_bom()
pcb(pcb);
translate_z(pcb_thickness(pcb)) {
camera_lens(type);
conn = camera_connector_size(type);
if(conn) {
pos = camera_connector_pos(type);
color(grey(20))
translate(pos)
rounded_rectangle(conn, 0.5, center = false);
flex = [5, 0.1];
color("orange")
hull() {
translate_z(flex.y /2)
translate(camera_lens_offset(type) + [0, camera_lens(type)[0][0].y / 2])
cube([flex.x, eps, flex.y], center = true);
translate_z(conn.z - flex.y)
translate(pos - [0, conn.y / 2])
cube([flex.x, eps, flex.y], center = true);
}
}
}
}

58
vitamins/cameras.scad Normal file
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@@ -0,0 +1,58 @@
//
// NopSCADlib Copyright Chris Palmer 2020
// nop.head@gmail.com
// hydraraptor.blogspot.com
//
// This file is part of NopSCADlib.
//
// NopSCADlib is free software: you can redistribute it and/or modify it under the terms of the
// GNU General Public License as published by the Free Software Foundation, either version 3 of
// the License, or (at your option) any later version.
//
// NopSCADlib is distributed in the hope that it will be useful, but WITHOUT ANY WARRANTY;
// without even the implied warranty of MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE.
// See the GNU General Public License for more details.
//
// You should have received a copy of the GNU General Public License along with NopSCADlib.
// If not, see <https://www.gnu.org/licenses/>.
//
include <smds.scad>
rpi_camera_v1_pcb = ["", "", 25, 24, 1, 0, 2.1, 0, "green", false, [[2, -2], [-2, -2], [2, 9.6], [-2, 9.6]],
[
[12, 3.25, 0, "-flat_flex", true],
[-4.5, -5, 0, "smd_led", LED0603, "red"],
[-5.5, -4, 0, "smd_res", RES0603, "1K2"],
],
[]];
rpi_camera_v1 = ["rpi_camera_v1", "Raspberry Pi camera V1", rpi_camera_v1_pcb, [0, 9.6 - 12],
[
[[8, 8, 3], 0],
[[0, 0, 4], 7.5 / 2],
[[0, 0, 5], 5.5 / 2, [1.5/2, 2/2, 0.5]],
],
[0, 12 - 1.5 - 2.5], [8, 5, 1]
];
rpi_camera_pcb = ["", "", 36, 36, 1.6, 0, 3.2, 0, "green", false, [[3.5, -3.5], [-3.5, -3.5], [3.5, 3.5], [-3.5, 3.5]],
[
[18, 4.25, 0, "-flat_flex", true],
[-3.8, -7.8, 0, "smd_led", LED0805, "red"],
],
[]];
rpi_camera = ["rpi_camera", "Raspberry Pi focusable camera", rpi_camera_pcb, [0, 0],
[
[[13, 13, 3], 0],
[[22, 4, 3], 2 - eps],
[[0, 0, 8.5], 7],
[[0, 0, 12], 6],
[[0, 11, 4.3], 14 / 2, [8/2, 11/2, 1]],
],
[0, 18 - 1.5 - 2.5], [8, 5, 1.6]
];
cameras = [rpi_camera_v1, rpi_camera];
use <camera.scad>

View File

@@ -137,7 +137,6 @@ module light_strip(type, segs = undef) { //! Draw specified light strip, segs ca
linear_extrude(0.55 + eps)
resistor_positions()
square([2.1, 1.5 + 2 * eps], center = true);
}
if(show_rays)
@@ -148,8 +147,9 @@ wall = 1.8;
clearance = 0.2;
function light_strip_clip_slot(light) = light_strip_width(light) + clearance; //! Clip slot size
function light_strip_clip_depth(light) = 10; //! Depth of the clip
function light_strip_clip_length(light) = light_strip_clip_slot(light) + 2 * wall; //! Outside length
function light_strip_clip_width(light) = light_strip_depth(light) + 2 * wall; //! Outside width
function light_strip_clip_length(light) = light_strip_clip_slot(light) + 2 * wall; //! Outside length of clip
function light_strip_clip_width(light) = light_strip_depth(light) + 2 * wall; //! Outside width of clip
function light_strip_clip_wall() = wall; //! Clip wall thickness
module light_strip_clip(light) { //! Make a clip to go over the strip to be incorporated into a bracket
linear_extrude(light_strip_clip_depth(light), convexity = 2)

View File

@@ -26,7 +26,7 @@
// e s c
// s k
Rigid5050 = ["Rigid5050", "rigid SMD5050 low profile", 500, 36, 3, 14.4, 7, 10.4, 0.9, 1.2];
RIGID5050 = ["RIGID5050", "rigid SMD5050" , 500, 36, 3, 14.4, 8.6, 10.4, 0.9, 1.6];
RIGID5050 = ["RIGID5050", "rigid SMD5050" , 500, 36, 3, 14.4, 8.6, 9.8, 0.8, 1.6];
light_strips = [Rigid5050, RIGID5050,];

View File

@@ -53,6 +53,8 @@ function pcb_accessories(type) = type[12]; //! List of accessories to go on the
function pcb_grid(type) = type[13]; //! Grid if a perfboard
function pcb_polygon(type) = type[14]; //! Optional outline polygon for odd shaped boards
function pcb_screw(type, cap = hs_cap) = Len(type[15]) ? type[15] : find_screw(cap, screw_smaller_than(pcb_hole_d(type))); //! Mounting screw type
function pcb_size(type) = [pcb_length(type), pcb_width(type), pcb_thickness(type)]; //! Length, width and thickness in a vector
function pcb_grid_pos(type, x, y, z = 0) = //! Returns a pcb grid position
[-pcb_length(type) / 2 + pcb_grid(type).x + 2.54 * x,
@@ -642,50 +644,47 @@ module flex(cutout = false) { //! Draw flexistrip connector
}
}
module flat_flex(cutout = false) { //! Draw flat flexistrip connector as used on RPI0
l1 = 17;
w1 = 1.4;
h1 = 1.2;
small_ff = [[11.8, 0.9], [17, 1.4, 1.2], [12, 1.6, 1.2], [16, 1.1, 1.2]];
large_ff = [[16, 1.25], [22, 1.5, 2.25],[16, 4.0, 2.5], [21, 0, 2.5]];
l2 = 15.4;
w2 = 1.6;
h2 = 1.0;
function ff_slot(type) = type[0]; //! Flat flex slot size
function ff_latch(type) = type[1]; //! Flat flex latch size
function ff_mid(type) = type[2]; //! Flat flex middle section size
function ff_back(type) = type[3]; //! Flat flex back section size
l3 = 16;
w3 = 1.1;
h3 = 1.2;
module flat_flex(type, cutout = false) { //! Draw flat flexistrip connector as used on RPI0
slot = ff_slot(type);
latch = ff_latch(type);
mid = ff_mid(type);
back = ff_back(type);
l4 = 12;
slot_l = 11.8;
slot_h = 0.9;
w = w1 + w2 + w3;
w = latch.y + mid.y + back.y;
if(cutout)
;
else {
color(grey(30)) {
translate([w / 2 - w1, 0, h1 / 2])
rotate([90, 0, 90])
linear_extrude(w1)
color(grey(30))
translate([0, w / 2 - latch.y])
rotate([90, 0, 180])
linear_extrude(latch.y)
difference() {
square([l1, h1], center = true);
translate([-latch.x / 2, 0])
square([latch.x, latch.z]);
translate([0, -h1 / 2])
square([slot_l, slot_h * 2], center = true);
square([slot.x, slot.y * 2], center = true);
}
}
color(grey(90)) {
translate([-w / 2 + w3 / 2, 0, h3 / 2])
cube([w3, l3, h3], center = true);
color("ivory") {
translate([-back.x / 2, -w / 2])
if(back.y)
cube(back);
translate([-w / 2 + w3 + w2 / 2, 0, h2 / 2])
cube([w2, l2, h2], center = true);
translate([-w / 2 + w3 + w2 / 2, 0, h3 / 2])
cube([w2, l4, h3], center = true);
translate([-mid.x / 2, -w / 2 + back.y])
cube(mid);
}
color(grey(80))
translate([-back.x / 2, -w / 2 + back.y])
cube([back.x, mid.y, mid.z - eps]);
}
}
@@ -897,7 +896,7 @@ module pcb_component(comp, cutouts = false, angle = undef) { //! Draw pcb compon
if(show(comp, "hdmi")) hdmi(hdmi_full, cutouts);
if(show(comp, "mini_hdmi")) hdmi(hdmi_mini, cutouts);
if(show(comp, "flex")) flex(cutouts);
if(show(comp, "flat_flex")) flat_flex(cutouts);
if(show(comp, "flat_flex")) flat_flex(param(4, false) ? large_ff : small_ff, cutouts);
if(show(comp, "uSD")) uSD(comp[4], cutouts);
if(show(comp, "trimpot10")) trimpot10(param(4, false), cutouts);
if(show(comp, "molex_usb_Ax2")) molex_usb_Ax2(cutouts);
@@ -924,6 +923,7 @@ module pcb_component(comp, cutouts = false, angle = undef) { //! Draw pcb compon
if(show(comp, "jst_xh")) jst_xh_header(jst_xh_header, comp[4], param(5, false), param(6, "white"), param(7, undef));
if(show(comp, "potentiometer")) potentiometer(param(4, 5), param(5, 9));
if(show(comp, "buzzer")) buzzer(param(4, 9), param(5, 12), param(6, grey(20)));
if(show(comp, "smd_res")) smd_resistor(comp[4], comp[5]);
}
}
}

View File

@@ -224,7 +224,7 @@ RPI0 = ["RPI0", "Raspberry Pi Zero", 65, 30, 1.4, 3, 2.75, 6, "gre
[54, 2, -90, "usb_uA"],
[41.4, 2, -90, "usb_uA"],
[7.25, 16.7, 180, "uSD", [12, 11.5, 1.4]],
[-1.3, 15, 0, "flat_flex"],
[-1.3, 15, -90, "flat_flex"],
],
[": Micro SD card"],
[32.5 - 9.5 * 2.54, 26.5 - 1.27, 20, 2]];

View File

@@ -25,6 +25,7 @@ MGN5_carriage = [ 16, 9.6, 12, 6, 1.5, 0, 8 , M2_cap_screw ];
MGN7_carriage = [ 23, 14.3, 17, 8, 1.5, 8, 12, M2_cap_screw ];
MGN9_carriage = [ 29.7, 20.8, 20, 10, 2, 10, 15, M3_cap_screw ];
MGN12_carriage = [ 34.7, 21.7, 27, 13, 3, 15, 20, M3_cap_screw ];
MGN12H_carriage= [ 45.4, 32.4, 27, 13, 3, 20, 20, M3_cap_screw ];
MGN15_carriage = [ 43.3, 27.7, 32, 16, 4, 20, 25, M3_cap_screw ];
SSR15_carriage = [ 40.3, 23.3, 34, 24, 4.5, 0, 26, M4_cap_screw ];
//
@@ -36,9 +37,10 @@ MGN5 = [ "MGN5", 5, 3.6, 5, 15, 3.5, 2.4, 0.8, M2_cs_cap_screw, MGN5_carriag
MGN7 = [ "MGN7", 7, 5, 5, 15, 4.3, 2.4, 2.6, M2_cap_screw, MGN7_carriage, M2_cs_cap_screw ];
MGN9 = [ "MGN9", 9, 6, 7.5, 20, 6.0, 3.5, 3.5, M3_cap_screw, MGN9_carriage, M3_cs_cap_screw ];
MGN12= [ "MGN12", 12, 8, 10, 25, 6.0, 3.5, 4.5, M3_cap_screw, MGN12_carriage, M3_cs_cap_screw ];
MGN12H=[ "MGN12H",12, 8, 10, 25, 6.0, 3.5, 4.5, M3_cap_screw, MGN12H_carriage,M3_cs_cap_screw ];
MGN15= [ "MGN15", 15, 10, 10, 40, 6.0, 3.5, 5.0, M3_cap_screw, MGN15_carriage, M3_cs_cap_screw ];
SSR15= [ "SSR15", 15, 12.5,10, 60, 7.5, 4.5, 5.3, M4_cap_screw, SSR15_carriage, M4_cs_cap_screw ];
rails = [MGN5, MGN7, MGN9, MGN15, SSR15];
rails = [MGN5, MGN7, MGN9, MGN12, MGN12H, MGN15, SSR15];
use <rail.scad>

View File

@@ -29,7 +29,7 @@ function smd_led_lens(type) = type[2]; //! Lens length width and height
function smd_led_height(type) = //! Total height
smd_led_size(type).z + smd_led_lens(type).z;
function smd_100th(x) = //! Convert dimesion to 1/100" notation
function smd_100th(x) = //! Convert dimension to 1/100" notation
let(s = str(round(x / inch(0.01))))
len(s) < 2 ? str("0", s) : s;
@@ -78,3 +78,33 @@ module smd_led(type, colour, cutout) { //! Draw an SMD LED with specified ```col
}
}
}
function smd_res_size(type) = type[1]; //! Body length, width and height
function smd_res_end_cap(type) = type[2]; //! End cap width
function smd_res_power(type) = type[3]; //! Power rating in Watts
module smd_resistor(type, value) { //! Draw an SMD resistor with specified value
size = smd_res_size(type);
vitamin(str("smd_resistor(", type[0], ", ", value, "): SMD resistor ", smd_size(size), " ", value, " ", smd_res_power(type), "W"));
t = 0.04;
cap = smd_res_end_cap(type);
color("white")
translate_z(size.z / 2)
cube([size.x - 2 * t, size.y, size.z - 2 * t], center = true);
color(grey(20))
translate_z(size.z - t)
cube([size.x - 2 * cap, size.y, eps], center = true);
color(silver)
for(end = [-1, 1])
translate([end * (size.x / 2 - cap / 2), 0, size.z / 2])
cube([cap, size.y - 2 * eps, size.z], center = true);
color("white")
translate([0, 0, size.z])
linear_extrude(eps)
resize([(size.x - 2 * cap) * 0.75, size.y / 2])
text(value, halign = "center", valign = "center");
}

View File

@@ -18,11 +18,18 @@
//
//
//! Axial components
//! SMD components
//
LED0805 = ["LED0805", [2, 1.25, 0.46], [1.4, 1.25, 0.54]];
LED0603 = ["LED0603", [1.6, 0.8, 0.18], [1.0, 0.8, 0.42]];
LED0805 = ["LED0805", [2.0, 1.25, 0.46], [1.4, 1.25, 0.54]];
smd_leds = [LED0805];
smd_leds = [LED0603, LED0805];
RES0603 = ["RES0603", [1.6, 0.8, 0.45], 0.3, 1/10];
RES0805 = ["RES0805", [2.0, 1.2, 0.45], 0.4, 1/8];
RES1206 = ["RES1206", [3.1, 1.6, 0.6], 0.5, 1/4];
smd_resistors = [RES0603, RES0805, RES1206];
use <smd.scad>