def __init__(self):
self.midi_jack_out = mj.midi_jack_t(hole_relative_to_bottom=False)
self.midi_jack_in = mj.midi_jack_t(hole_relative_to_bottom=False)
self.dc_jack = dj.dc_jack_t(overhang=wallgap + 1)
self.usb_a = uta.usbtypea_t(overhang=wallgap - 1)
self.parts = [self.midi_jack_out]
self.parts = pa.stick_on_part(self.parts, self.midi_jack_in, 'e',
('', '+', '+'), False)
self.parts = pa.stick_on_part(self.parts, self.usb_a, 'e',
('', '+', '+'), False)
self.parts = pa.stick_on_part(self.parts, self.dc_jack, 'e',
('', '+', '+'), False)
co, dim = pa.parts_hull(self.parts)
pa.cube_t.__init__(self, coords=co.as_tuple(), dims=dim.as_tuple())
def __init__(self):
self.back_wall_parts = bwp.back_wall_parts_t()
self.top_circuit = topcirc.top_circuit_t(
ideal_width=self.back_wall_parts.get_dims().x)
self.parts = pa.stick_on_part([self.back_wall_parts], self.top_circuit,
's', ('-', '', '+'), False)
self.top_circuit.translate(
(0, 0, self.top_circuit.get_dims().z + pcb_thickness))
co, dim = pa.parts_hull(self.parts)
pa.cube_t.__init__(self, coords=co.as_tuple(), dims=dim.as_tuple())
]
points = []
for p in parts:
points += p.get_rect_points()
ep = pa.extreme_points(points)
mi, ma = ep
sys.stderr.write("min\n")
for m in mi:
sys.stderr.write(m.__string__() + '\n')
sys.stderr.write("max\n")
for m in ma:
sys.stderr.write(m.__string__() + '\n')
parts = pa.stick_on_part(parts, pa.cube_t(dims=(0.5, 0.25, 0.5)), 'e',
('', '+', '+'), False)
parts = pa.stick_on_part(parts, pa.cube_t(dims=(0.5, 0.25, 0.25)), 'w',
('', '+', '-'), False)
parts = pa.stick_on_part(parts, pa.cube_t(dims=(0.5, 0.25, 0.25)), 'b',
('+', '+', ''), False)
parts = pa.stick_on_part(parts, pa.cube_t(dims=(0.75, 0.25, 0.25), gap=0.2),
't', ('-', '+', ''), False)
parts = pa.stick_on_part(parts, pa.cube_t(dims=(0.75, 0.25, 0.25), gap=0.3),
'n', ('-', '', '-'), False)
parts = pa.stick_on_part(parts, pa.cube_t(dims=(0.75, 0.25, 0.25), gap=0.1),
'w', ('', '+', '-'), False)
for p in parts:
print(p.oscad_draw_solid())
#print(parts[-1].oscad_draw())
# Include parent directory in python path
import partasm as pa
import midijack as mj
parts = [mj.midi_jack_t(hole_relative_to_bottom=False)]
parts = pa.stick_on_part(parts, mj.midi_jack_t(hole_relative_to_bottom=False),
'e', ('', '+', '-'), False)
co, di = pa.parts_hull(parts)
parts = pa.stick_on_part(parts,
pa.cube_t(coords=co.as_tuple(), dims=(di.x, 5, di.z)),
'n', ('-', '', '-'), True)
print("difference () {")
print("union () {")
for p in parts:
print(p.oscad_draw_solid())
print("}")
print("union () {")
for p in parts:
print(p.oscad_draw_void())
print("}")
print("}")
def __init__(self, ideal_width=0):
"""
ideal_width: tries to push encoders to the east side so that the width
is ideal_width, but if it can't, the encoders are just stuck to the east
side of the LED array.
"""
self.led_array = leda.led_array_t(nrows=led_array['n_rows'],
ncols=led_array['n_cols'],
gapx=2,
gapy=2)
self.top_encoder = enc.encoder_t()
self.bottom_encoder = enc.encoder_t()
self.parts = [self.led_array]
# Top encoder aligned to top of LED array, right side, trying to be
# ideal_width
self.parts = pa.stick_on_part(self.parts, self.top_encoder, 'e',
('', '+', '-'), False)
if (pa.parts_hull(self.parts)[1].as_tuple()[0] +
enc_gap) < ideal_width:
transx = (ideal_width -
pa.parts_hull(self.parts)[1].as_tuple()[0] - enc_gap)
self.top_encoder.translate((transx, 0, 0))
# Bottom encoder just below
self.parts = pa.stick_on_part(self.parts, self.bottom_encoder, 's',
('+', '', '-'), False)
self.bottom_encoder.translate((0, -enc_gap, 0))
# buttons on left side (initially below bottom encoder)
self.buttons = [btn.button_t() for _ in range(6)]
self.parts = pa.stick_on_part(self.parts, self.buttons[0], 's',
('-', '', '-'), True)
# nudge it to make it work
self.buttons[0].translate((0, -1e-4, 0))
self.parts = pa.stick_on_part(self.parts, self.buttons[1], 'e',
('', '-', '-'), False)
self.parts = pa.stick_on_part(self.parts, self.buttons[2], 's',
('-', '', '-'), True)
# nudge it to make it work
self.buttons[2].translate((0, -1e-4, 0))
self.parts = pa.stick_on_part(self.parts, self.buttons[3], 'e',
('', '-', '-'), False)
self.parts = pa.stick_on_part(self.parts, self.buttons[4], 's',
('-', '', '-'), True)
# nudge it to make it work
self.buttons[4].translate((0, -1e-4, 0))
self.parts = pa.stick_on_part(self.parts, self.buttons[5], 'e',
('', '-', '-'), False)
# move up to fill in empty space and bring them just below the LED array
for b in self.buttons:
b.translate((0, b.get_dims().y, 0))
# move over last 2
transx = ideal_width - pa.parts_hull(
self.buttons[-2:])[1].as_tuple()[0] - enc_gap
for b in self.buttons[-2:]:
b.translate((transx, 0, 0))
# put shafts around the buttons
for b, t in zip(self.buttons, '!@#*%&'):
self.parts.append(
btn.button_shaft(b, inside=True, keytext=t, font="Helvetica"))
co, dim = pa.parts_hull(self.parts)
negco = tuple(-1 * c for c in co.as_tuple())
# Make it so bottom corner is at origin
for p in self.parts:
p.translate(negco)
pa.cube_t.__init__(self, coords=co.as_tuple(), dims=dim.as_tuple())
# Include parent directory in python path
import partasm as pa
import midijack as mj
import dcjack as dj
import usbtypea as uta
import domepartconfig as dpc
wallgap = dpc.wall_thickness
midi_jack_out = mj.midi_jack_t(hole_relative_to_bottom=False)
midi_jack_in = mj.midi_jack_t(hole_relative_to_bottom=False)
dc_jack = dj.dc_jack_t(overhang=wallgap + 1)
usb_a = uta.usbtypea_t(overhang=wallgap - 1)
parts = [midi_jack_out]
parts = pa.stick_on_part(parts, midi_jack_in, 'e', ('', '+', '+'), False)
parts = pa.stick_on_part(parts, usb_a, 'e', ('', '+', '+'), False)
parts = pa.stick_on_part(parts, dc_jack, 'e', ('', '+', '+'), False)
co, di = pa.parts_hull(parts)
back_wall = pa.cube_t(dims=(di.x + 2 * wallgap, wallgap, di.z + 2 * wallgap))
parts = pa.stick_on_part(parts, back_wall, 'n', ('-', '', '-'), False)
# The circuit
#print('color("MediumSeaGreen") {')
#print("difference () {")
#print("union () {")
#for p in [midi_jack_in,midi_jack_out,dc_jack,usb_a]:
# print(p.oscad_draw_solid())