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16 Commits

Author SHA1 Message Date
Chris Palmer
eac0086199 tests.py now allows parts of projects to be tested without finding an implementation. 2020-11-10 12:01:57 +00:00
Chris Palmer
51c649cc53 Merge branch 'martinbudden-tests_script' 2020-11-09 16:19:45 +00:00
Chris Palmer
5fa33d7c4d Tests.py now works in projects and makes tests.md and tests.html.
NopSCADlib blurb now scraped from libtest.scad.
libtest.scad no longer required and lack of it is used to detect a project.
2020-11-09 16:17:02 +00:00
Chris Palmer
78ce51d045 Merge branch 'tests_script' of https://github.com/martinbudden/NopSCADlib into martinbudden-tests_script 2020-11-08 21:36:56 +00:00
Chris Palmer
23cbadf6df Merge branch 'martinbudden-stepper_motor_jst_connector' 2020-11-08 21:29:03 +00:00
Chris Palmer
c9c2ffafba Fixed connector position, fixed missing wires, updated images.
Reverted the jst header pin position change.
2020-11-08 21:28:08 +00:00
Martin Budden
2e0e833d40 Made jst_connector a parameter to NEMA. 2020-11-08 15:14:19 +00:00
Martin Budden
6c51f8726c Updated tests.py to better support generic testing. 2020-11-08 14:56:52 +00:00
Martin Budden
0b035dbd15 Added optional jst connector to stepper motors. 2020-11-08 12:20:15 +00:00
Chris Palmer
34b58e3b64 Added convexity parameter to sweep. 2020-11-04 22:27:31 +00:00
Chris Palmer
df43fe7dc6 Added list and string slicing. 2020-11-04 21:44:07 +00:00
Chris Palmer
b5fe03fcb2 Test image pixel differences due to switch to winter computer 2020-11-04 20:48:22 +00:00
Chris Palmer
1658f6f0b4 Sweep can now cope with the start having colinear points. 2020-11-04 19:56:51 +00:00
Chris Palmer
7b126f9792 More spelling 2020-11-04 19:50:35 +00:00
Chris Palmer
479207fd4f Spelling 2020-11-04 10:52:57 +00:00
Chris Palmer
3ee55981f9 Comment spelling. 2020-10-05 12:02:54 +01:00
23 changed files with 156 additions and 80 deletions

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@@ -18,7 +18,7 @@
//
//
// Include this file to use the miniumum library plus screws, nuts and washers
// Include this file to use the minimum library plus screws, nuts and washers
//
include <utils/core/core.scad>
//

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@@ -33,7 +33,7 @@ $exploded = is_undef($explode) ? 0 : $explode; // 1 f
layer_height = is_undef($layer_height) ? 0.25 : $layer_height; // layer heigth when printing
extrusion_width = is_undef($extrusion_width) ? 0.5 : $extrusion_width; // filament width when printing
nozzle = is_undef($nozzle) ? 0.45 : $nozzle; // 3D printer nozzle
cnc_bit_r = is_undef($cnc_bit_r) ? 1.2 : $cnc_bit_r; // miniumum tool radius when milling 2D objects
cnc_bit_r = is_undef($cnc_bit_r) ? 1.2 : $cnc_bit_r; // minimum tool radius when milling 2D objects
pp1_colour = is_undef($pp1_colour) ? [0, 146/255, 0] : $pp1_colour; // printed part colour 1, RepRap logo colour
pp2_colour = is_undef($pp2_colour) ? "red" : $pp2_colour; // printed part colour 2
pp3_colour = is_undef($pp3_colour) ? "blue" : $pp3_colour; // printed part colour 3

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@@ -17,6 +17,23 @@
// If not, see <https://www.gnu.org/licenses/>.
//
//!# NopSCADlib
//! An ever expanding library of parts modelled in OpenSCAD useful for 3D printers and enclosures for electronics, etc.
//!
//! It contains lots of vitamins (the RepRap term for non-printed parts), some general purpose printed parts and some utilities.
//! There are also Python scripts to generate Bills of Materials (BOMs),
//! STL files for all the printed parts, DXF files for CNC routed parts in a project and a manual containing assembly
//! instructions and exploded views by scraping markdown embedded in OpenSCAD comments, [see scripts](scripts/readme.md).
//!
//! A simple example project can be found [here](examples/MainsBreakOutBox/readme.md).
//!
//! For more examples of what it can make see the [gallery](gallery/readme.md).
//!
//! The license is GNU General Public License v3.0, see [COPYING](COPYING).
//!
//! See [usage](docs/usage.md) for requirements, installation instructions and a usage guide.
//!
//! <img src="libtest.png" width="100%"/>
//
// This file shows all the parts in the library.
//

View File

@@ -1,10 +1,12 @@
# NopSCADlib
An ever expanding library of parts modelled in OpenSCAD useful for 3D printers and enclosures for electronics, etc.
It contains lots of vitamins (the RepRap term for non-printed parts), some general purpose printed parts and
some utilities. There are also Python scripts to generate Bills of Materials (BOMs),
STL files for all the printed parts, DXF files for CNC routed parts in a project and a manual containing assembly
instructions and exploded views by scraping markdown embedded in OpenSCAD comments, [see scripts](scripts/readme.md). A simple example project can be found [here](examples/MainsBreakOutBox/readme.md).
It contains lots of vitamins (the RepRap term for non-printed parts), some general purpose printed parts and some utilities.
There are also Python scripts to generate Bills of Materials (BOMs),
STL files for all the printed parts, DXF files for CNC routed parts in a project and a manual containing assembly
instructions and exploded views by scraping markdown embedded in OpenSCAD comments, [see scripts](scripts/readme.md).
A simple example project can be found [here](examples/MainsBreakOutBox/readme.md).
For more examples of what it can make see the [gallery](gallery/readme.md).
@@ -403,7 +405,7 @@ PCB mounted buttons. Can optionally have a coloured cap
## Cable_strips
A strip of polypropylene used with ribbon cable to make a cable flexible in one direction only.
Modelled with a Bezier spline, which is not quite the same as a miniumum energy curve but very close, epecially
Modelled with a Bezier spline, which is not quite the same as a minimum energy curve but very close, epecially
near the extreme positions, where the model needs to be accurate.
When the sides are constrained then a circular model is more accurate.
@@ -3422,7 +3424,7 @@ NEMA stepper motor model.
### Modules
| Module | Description |
|:--- |:--- |
| ```NEMA(type, shaft_angle = 0)``` | Draw specified NEMA stepper motor |
| ```NEMA(type, shaft_angle = 0, jst_connector = false)``` | Draw specified NEMA stepper motor |
| ```NEMA_outline(type)``` | 2D outline |
| ```NEMA_screw_positions(type, n = 4)``` | Positions children at the screw holes |
| ```NEMA_screws(type, screw, n = 4, screw_length = 8, earth = undef)``` | Place screws and optional earth tag |
@@ -5387,7 +5389,7 @@ Method to print holes in mid air. See <https://hydraraptor.blogspot.com/2014/03/
## Horiholes
Utilities for depicting the staircase slicing of horizontal holes made with [`teardrop_plus()`](#teardrops), see <https://hydraraptor.blogspot.com/2020/07/horiholes-2.html>
horicylinder() makes cylinders that fit inside a round hole. Layers that are less than 2 filaments wide and layers that need more than a 45 degree overhang are ommitted.
```horicylinder()``` makes cylinders that fit inside a round hole. Layers that are less than 2 filaments wide and layers that need more than a 45 degree overhang are omitted.
[utils/horiholes.scad](utils/horiholes.scad) Implementation.
@@ -5664,7 +5666,7 @@ An additional twist around the path can be specified. If the path is closed this
### Modules
| Module | Description |
|:--- |:--- |
| ```sweep(path, profile, loop = false, twist = 0)``` | Draw a polyhedron that is the swept volume |
| ```sweep(path, profile, loop = false, twist = 0, convexity = 1)``` | Draw a polyhedron that is the swept volume |
![sweep](tests/png/sweep.png)
@@ -5856,11 +5858,13 @@ Global constants, functions and modules. This file is used directly or indirectl
| ```foot(x)``` | Foot to mm conversion |
| ```in(list, x)``` | Returns true if ```x``` is an element in the ```list``` |
| ```inch(x)``` | Inch to mm conversion (For fractional inches, 'inch(1 + 7/8)' will work as expected.) |
| ```limit(x, min, max)``` | Force x in range min <= x <= max |
| ```m(x)``` | m to mm conversion |
| ```mm(x)``` | Explicit mm specified |
| ```no_point(str)``` | Replace decimal point in string with 'p' |
| ```r2sides(r)``` | Replicates the OpenSCAD logic to calculate the number of sides from the radius |
| ```r2sides4n(r)``` | Round up the number of sides to a multiple of 4 to ensure points land on all axes |
| ```slice(list, start = 0, end = undef)``` | Slice a list or string with Python type semantics |
| ```sqr(x)``` | Returns the square of ```x``` |
| ```yard(x)``` | Yard to mm conversion |

View File

@@ -97,7 +97,6 @@ def tests(tests):
for dir in [deps_dir, png_dir, bom_dir]:
if not os.path.isdir(dir):
os.makedirs(dir)
doc_name = "readme.md"
index = {}
bodies = {}
done = []
@@ -108,19 +107,33 @@ def tests(tests):
#
png_name = "libtest.png"
scad_name = "libtest.scad"
if not os.path.isfile(png_name):
openscad.run(colour_scheme, "--projection=p", "--imgsize=%d,%d" % (w, h), "--camera=0,0,0,50,0,340,500", "--autocenter", "--viewall", "-o", png_name, scad_name);
do_cmd(["magick", png_name, "-trim", "-resize", "1280", "-bordercolor", background, "-border", "10", png_name])
if os.path.isfile(scad_name):
libtest = True
lib_blurb = scrape_blurb(scad_name)
if not os.path.isfile(png_name):
openscad.run(colour_scheme, "--projection=p", "--imgsize=%d,%d" % (w, h), "--camera=0,0,0,50,0,340,500", "--autocenter", "--viewall", "-o", png_name, scad_name);
do_cmd(["magick", png_name, "-trim", "-resize", "1280", "-bordercolor", background, "-border", "10", png_name])
else:
#
# Project tests so just a title
#
libtest = False
project = ' '.join(word[0].upper() + word[1:] for word in os.path.basename(os.getcwd()).split('_'))
lib_blurb = '#' + project + ' Tests\n'
doc_base_name = "readme" if libtest else "tests"
doc_name = doc_base_name + ".md"
#
# List of individual part files
#
scads = [i for i in sorted(os.listdir(scad_dir), key = lambda s: s.lower()) if i[-5:] == ".scad"]
scads = [i for i in sorted(os.listdir(scad_dir), key = lambda s: s.lower()) if i[-5:] == ".scad"]
types = []
for scad in scads:
base_name = scad[:-5]
if not tests or base_name in tests:
done.append(base_name)
print(base_name)
print('\n'+base_name)
cap_name = base_name[0].capitalize() + base_name[1:]
base_name = base_name.lower()
scad_name = scad_dir + '/' + scad
@@ -132,29 +145,42 @@ def tests(tests):
if is_plural(base_name) and os.path.isfile(vits_name):
objects_name = vits_name
locations = [
('vitamins/' + depluralise(base_name) + '.scad', 'Vitamins'),
('printed/' + base_name + '.scad', 'Printed'),
('utils/' + base_name + '.scad', 'Utilities'),
('utils/core/' + base_name + '.scad', 'Core Utilities'),
]
locations = []
if os.path.isdir('vitamins'):
locations.append(('vitamins/' + depluralise(base_name) + '.scad', 'Vitamins'))
if os.path.isdir('printed'):
locations.append(('printed/' + base_name + '.scad', 'Printed'))
if os.path.isdir('utils'):
locations.append(('utils/' + base_name + '.scad', 'Utilities'))
if libtest and os.path.isdir('utils/core'):
locations.append(('utils/core/' + base_name + '.scad', 'Core Utilities'))
for name, type in locations:
if os.path.isfile(name):
impl_name = name
break
else:
print("Can't find implementation!")
continue
if libtest:
print("Can't find implementation!")
continue
else:
type = 'Tests' # OK when testing part of a project
impl_name = None
vsplit = "AJR" + chr(ord('Z') + 1)
vtype = locations[0][1]
types = [vtype + ' ' + vsplit[i] + '-' + chr(ord(vsplit[i + 1]) - 1) for i in range(len(vsplit) - 1)] + [loc[1] for loc in locations[1 :]]
if type == vtype:
for i in range(1, len(vsplit)):
if cap_name[0] < vsplit[i]:
type = types[i - 1]
break
if libtest:
vsplit = "AJR" + chr(ord('Z') + 1)
vtype = locations[0][1]
types = [vtype + ' ' + vsplit[i] + '-' + chr(ord(vsplit[i + 1]) - 1) for i in range(len(vsplit) - 1)] + [loc[1] for loc in locations[1 :]]
if type == vtype:
for i in range(1, len(vsplit)):
if cap_name[0] < vsplit[i]:
type = types[i - 1]
break
else:
if not types:
types = [loc[1] for loc in locations] # No need to split up the vitamin list
if not type in types: # Will happen when implementation is not found and type is set to Tests
types.append(type)
for t in types:
if not t in bodies:
@@ -250,24 +276,7 @@ def tests(tests):
usage()
with open(doc_name, "wt") as doc_file:
print('# NopSCADlib', file = doc_file)
print('''\
An ever expanding library of parts modelled in OpenSCAD useful for 3D printers and enclosures for electronics, etc.
It contains lots of vitamins (the RepRap term for non-printed parts), some general purpose printed parts and
some utilities. There are also Python scripts to generate Bills of Materials (BOMs),
STL files for all the printed parts, DXF files for CNC routed parts in a project and a manual containing assembly
instructions and exploded views by scraping markdown embedded in OpenSCAD comments, [see scripts](scripts/readme.md). A simple example project can be found [here](examples/MainsBreakOutBox/readme.md).
For more examples of what it can make see the [gallery](gallery/readme.md).
The license is GNU General Public License v3.0, see [COPYING](COPYING).
See [usage](docs/usage.md) for requirements, installation instructions and a usage guide.
<img src="libtest.png" width="100%"/>\n
''', file = doc_file)
print(lib_blurb, file = doc_file)
print('## Table of Contents<a name="top"/>', file = doc_file)
print('<table><tr>', file = doc_file)
n = 0
@@ -288,10 +297,10 @@ See [usage](docs/usage.md) for requirements, installation instructions and a usa
for type in types:
for line in bodies[type]:
print(line, file = doc_file)
with open("readme.html", "wt") as html_file:
do_cmd("python -m markdown -x tables readme.md".split(), html_file)
with open(doc_base_name + ".html", "wt") as html_file:
do_cmd(("python -m markdown -x tables " + doc_name).split(), html_file)
times.print_times()
do_cmd('codespell -L od readme.md'.split())
do_cmd(('codespell -L od ' + doc_name).split())
if __name__ == '__main__':
for arg in sys.argv[1:]:

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@@ -29,6 +29,23 @@ module globals() {
translate([50, 0])
right_triangle(10, 20, 0);
}
assert(slice("ABCD") == "ABCD");
assert(slice("ABCD", 1) == "BCD");
assert(slice("ABCD", 2) == "CD");
assert(slice("ABCD", 3) == "D");
assert(slice("ABCD", 4) == "");
assert(slice("ABCD", 1, -1) == "BC");
assert(slice("ABCD", 2, -1) == "C");
assert(slice("ABCD", 3, -1) == "");
assert(slice("ABCD", 4, -1) == "");
assert(slice("ABCD", 0, -1) == "ABC");
assert(slice("ABCD", 0, -2) == "AB");
assert(slice("ABCD", 0, -3) == "A");
assert(slice("ABCD", 0, -4) == "");
assert(slice("ABCD", 0, 0) == "");
assert(slice("ABCD", 0, 1) == "A");
assert(slice("ABCD", 0, 2) == "AB");
assert(slice("ABCD", 0, 3) == "ABC");
}
rotate([70, 0, 315]) globals();

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@@ -24,7 +24,7 @@ use <../utils/layout.scad>
module stepper_motors()
layout([for(s = stepper_motors) NEMA_width(s)], 5) {
rotate(180)
NEMA(stepper_motors[$i]);
NEMA(stepper_motors[$i], 0, $i > 1 && $i < 5);
translate_z(4)
NEMA_screws(stepper_motors[$i], M3_pan_screw, n = $i, earth = $i > 4 ? undef : $i - 1);

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@@ -18,7 +18,7 @@
//
//
// Include this file to use the miniumum library
// Include this file to use the minimum library
//
include <../../global_defs.scad>
//

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@@ -36,12 +36,22 @@ function in(list, x) = !!len([for(v = list) if(v == x) true]);
function Len(x) = is_list(x) ? len(x) : 0; //! Returns the length of a list or 0 if ```x``` is not a list
function r2sides(r) = $fn ? $fn : ceil(max(min(360/ $fa, r * 2 * PI / $fs), 5)); //! Replicates the OpenSCAD logic to calculate the number of sides from the radius
function r2sides4n(r) = floor((r2sides(r) + 3) / 4) * 4; //! Round up the number of sides to a multiple of 4 to ensure points land on all axes
function limit(x, min, max) = max(min(x, max), min); //! Force x in range min <= x <= max
module translate_z(z) translate([0, 0, z]) children(); //! Shortcut for Z only translations
module vflip() rotate([180, 0, 0]) children(); //! Invert children by doing a 180&deg; flip around the X axis
module hflip() rotate([0, 180, 0]) children(); //! Invert children by doing a 180&deg; flip around the Y axis
module ellipse(xr, yr) scale([1, yr / xr]) circle4n(xr); //! Draw an ellipse
function slice_str(str, start, end, s ="") = start >= end ? s : slice_str(str, start + 1, end, str(s, str[start])); // Helper for slice()
function slice(list, start = 0, end = undef) = let( //! Slice a list or string with Python type semantics
len = len(list),
start = limit(start < 0 ? len + start : start, 0, len),
end = is_undef(end) ? len : limit(end < 0 ? len + end : end, 0, len)
) is_string(list) ? slice_str(list, start, end) : [for(i = [start : 1 : end - 1]) list[i]];
module extrude_if(h, center = true) //! Extrudes 2D object to 3D when ```h``` is nonzero, otherwise leaves it 2D
if(h)
linear_extrude(h, center = center, convexity = 2) // 3D

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@@ -20,7 +20,7 @@
//
//! Utilities for depicting the staircase slicing of horizontal holes made with [`teardrop_plus()`](#teardrops), see <https://hydraraptor.blogspot.com/2020/07/horiholes-2.html>
//!
//! horicylinder() makes cylinders that fit inside a round hole. Layers that are less than 2 filaments wide and layers that need more than a 45 degree overhang are ommitted.
//! ```horicylinder()``` makes cylinders that fit inside a round hole. Layers that are less than 2 filaments wide and layers that need more than a 45 degree overhang are omitted.
//
include <../utils/core/core.scad>

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@@ -34,14 +34,22 @@ function transpose3(m) = [ [m[0].x, m[1].x, m[2].x],
[m[0].y, m[1].y, m[2].y],
[m[0].z, m[1].z, m[2].z] ];
//
// Find the first non-colinear point
//
tiny = 0.00001;
function find_curve(tangents, i = 1) =
i >= len(tangents) - 1 || norm(cross(tangents[0], tangents[i] - tangents[0])) > tiny ? i
: find_curve(tangents, i + 1);
//
// Frenet-Serret frame
//
function fs_frame(tangents) =
let(tangent = tangents[0],
normal = tangents[1] - tangents[0],
i = find_curve(tangents),
normal = tangents[i] - tangents[0],
binormal = cross(tangent, normal),
z = unit(tangent),
x = assert(norm(binormal) > 0.00001, "first three points are colinear") unit(binormal),
x = assert(norm(binormal) > tiny, "all points are colinear") unit(binormal),
y = unit(cross(z, x))
) [[x.x, y.x, z.x],
[x.y, y.y, z.y],
@@ -70,7 +78,6 @@ function orientate(p, r) =
[x.y, y.y, z.y],
[x.z, y.z, z.z],
[p.x, p.y, p.z]];
//
// Rotate around z
//
@@ -145,10 +152,10 @@ function sweep(path, profile, loop = false, twist = 0) = //! Generate the point
faces = loop ? skin_faces : concat([cap(facets)], skin_faces, [cap(facets, npoints - 1)])
) [points, faces];
module sweep(path, profile, loop = false, twist = 0) { //! Draw a polyhedron that is the swept volume
module sweep(path, profile, loop = false, twist = 0, convexity = 1) { //! Draw a polyhedron that is the swept volume
mesh = sweep(path, profile, loop, twist);
polyhedron(points = mesh[0], faces = mesh[1]);
polyhedron(points = mesh[0], faces = mesh[1], convexity = convexity);
}
function path_length(path, i = 0, length = 0) = //! Calculated the length along a path

View File

@@ -20,7 +20,7 @@
//
//! A strip of polypropylene used with ribbon cable to make a cable flexible in one direction only.
//!
//! Modelled with a Bezier spline, which is not quite the same as a miniumum energy curve but very close, epecially
//! Modelled with a Bezier spline, which is not quite the same as a minimum energy curve but very close, epecially
//! near the extreme positions, where the model needs to be accurate.
//!
//! When the sides are constrained then a circular model is more accurate.

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@@ -23,6 +23,7 @@
include <../core.scad>
include <ring_terminals.scad>
include <../vitamins/pin_headers.scad>
use <../utils/tube.scad>
use <../utils/thread.scad>
use <washer.scad>
@@ -39,7 +40,6 @@ function NEMA_shaft_length(type)= type[8]; //! Shaft length above the face, if a
function NEMA_hole_pitch(type) = type[9]; //! Screw hole pitch
function NEMA_holes(type) = [-NEMA_hole_pitch(type) / 2, NEMA_hole_pitch(type) / 2]; //! Screw positions for for loop
function NEMA_big_hole(type) = NEMA_boss_radius(type) + 0.2; //! Clearance hole for the big boss
stepper_body_colour = "black";
stepper_cap_colour = grey(50);
stepper_machined_colour = grey(90);
@@ -52,7 +52,7 @@ module NEMA_outline(type) //! 2D outline
circle(NEMA_radius(type));
}
module NEMA(type, shaft_angle = 0) { //! Draw specified NEMA stepper motor
module NEMA(type, shaft_angle = 0, jst_connector = false) { //! Draw specified NEMA stepper motor
side = NEMA_width(type);
length = NEMA_length(type);
body_rad = NEMA_body_radius(type);
@@ -92,12 +92,23 @@ module NEMA(type, shaft_angle = 0) { //! Draw specified NEMA stepper motor
cap_shape(1);
}
color(stepper_cap_colour) // aluminium end caps
tabSize = [16, 4, 2.5];
color(stepper_cap_colour) { // aluminium end caps
for(end = [-1, 1])
translate_z(-length / 2 + end * (length - cap) / 2)
linear_extrude(cap, center = true)
cap_shape(end);
if(jst_connector)
translate([-tabSize.x / 2, side / 2, -length])
cube(tabSize);
}
if(jst_connector)
translate([0, side / 2 - 2, -length + tabSize.z + 5.75 / 2])
rotate([-90, 0, 0])
jst_xh_header(jst_xh_header, 6);
if(show_threads)
for(x = NEMA_holes(type), y = NEMA_holes(type))
translate([x, y, -cap / 2])
@@ -111,15 +122,16 @@ module NEMA(type, shaft_angle = 0) { //! Draw specified NEMA stepper motor
cylinder(r = shaft_rad, h = shaft + 5); // shaft
else
not_on_bom()
leadscrew(shaft_rad * 2, shaft.x + 5, shaft.y, shaft.z, center = false)
leadscrew(shaft_rad * 2, shaft.x + 5, shaft.y, shaft.z, center = false);
translate([0, side / 2, -length + cap / 2])
rotate([90, 0, 0])
for(i = [0 : 3])
rotate(225 + i * 90)
color(["red", "blue","green","black"][i])
translate([1, 0, 0])
cylinder(r = 1.5 / 2, h = 12, center = true);
if(!jst_connector)
translate([0, side / 2, -length + cap / 2])
rotate([90, 0, 0])
for(i = [0 : 3])
rotate(225 + i * 90)
color(["red", "blue","green","black"][i])
translate([1, 0, 0])
cylinder(r = 1.5 / 2, h = 12, center = true);
}
module NEMA_screw_positions(type, n = 4) { //! Positions children at the screw holes

View File

@@ -23,13 +23,13 @@
// corner body boss boss shaft
// side, length, radius, radius, radius, depth, shaft, length, holes
NEMA17 = ["NEMA17", 42.3, 47, 53.6/2, 25, 11, 2, 5, 24, 31 ];
NEMA17M = ["NEMA17M", 42.3, 40, 53.6/2, 25, 11, 2, 5, 20, 31 ];
NEMA17M8= ["NEMA17M8", 42.3, 40, 53.6/2, 25, 11, 2, 8, [280, 8, 4], 31 ];
NEMA17S = ["NEMA17S", 42.3, 34, 53.6/2, 25, 11, 2, 5, 24, 31 ];
NEMA16 = ["NEMA16", 39.5, 19.2, 50.6/2, 50.6/2, 11, 2, 5, 12, 31 ];
NEMA14 = ["NEMA14", 35.2, 36, 46.4/2, 21, 11, 2, 5, 21, 26 ];
NEMA23 = ["NEMA23", 56.4, 51.2, 75.7/2, 35, 38.1/2, 1.6, 6.35, 24, 47.1 ];
NEMA17 = ["NEMA17", 42.3, 47, 53.6/2, 25, 11, 2, 5, 24, 31];
NEMA17M = ["NEMA17M", 42.3, 40, 53.6/2, 25, 11, 2, 5, 20, 31];
NEMA17M8= ["NEMA17M8", 42.3, 40, 53.6/2, 25, 11, 2, 8, [280, 8, 4], 31];
NEMA17S = ["NEMA17S", 42.3, 34, 53.6/2, 25, 11, 2, 5, 24, 31];
NEMA16 = ["NEMA16", 39.5, 19.2, 50.6/2, 50.6/2, 11, 2, 5, 12, 31];
NEMA14 = ["NEMA14", 35.2, 36, 46.4/2, 21, 11, 2, 5, 21, 26];
NEMA23 = ["NEMA23", 56.4, 51.2, 75.7/2, 35, 38.1/2, 1.6, 6.35, 24, 47.1];
stepper_motors = [NEMA14, NEMA16, NEMA17S, NEMA17M, NEMA17, NEMA23];