def __init__(self, params):
SividdleDevice.__init__(self, name='etchslab')
# retrieve parameters
self.id_string = params['id_string']
self.expose_layer = params['expose_layer']
self.label_layer = params['label_layer']
self.length_slab = params['length_slab']
self.width_slit = params['width_slit']
self.width_slab = params['width_slab']
slit = pg.rectangle(size=(self.width_slit, self.length_slab),
layer=self.expose_layer).rotate(90)
self << pg.copy(slit).movey((self.width_slit + self.width_slab) * 0.5)
self << pg.copy(slit).movey(-(self.width_slit + self.width_slab) * 0.5)
self.add_label(text='{} \n slab_width = {:.2f} \
\n slit_width = {:.2f} \
\n slab_length = {:.2f}'.format(self.id_string,
self.width_slab,
self.width_slit,
self.length_slab),
position=(self.xmin, self.ymax),
layer=self.label_layer)
# Shift center of bounding box to origin.
self.center = [0, 0]
def test_copy_deepcopy():
D = Device()
A = pg.ellipse(radii=(10, 5), angle_resolution=2.5, layer=1)
B = pg.ellipse(radii=(10, 5), angle_resolution=2.5, layer=1)
a = D << A
b1 = D << B
b2 = D << B
Dcopy = pg.copy(D)
Ddeepcopy = pg.deepcopy(D)
h = D.hash_geometry(precision=1e-4)
assert (h == '0313cd7e58aa265b44dd1ea10265d1088a2f1c6d')
h = Dcopy.hash_geometry(precision=1e-4)
assert (h == '0313cd7e58aa265b44dd1ea10265d1088a2f1c6d')
h = Ddeepcopy.hash_geometry(precision=1e-4)
assert (h == '0313cd7e58aa265b44dd1ea10265d1088a2f1c6d')
D << pg.ellipse(radii=(12, 5), angle_resolution=2.5, layer=2)
h = D.hash_geometry(precision=1e-4)
assert (h == '856cedcbbb53312ff839b9fe016996357e658d33')
h = Dcopy.hash_geometry(precision=1e-4)
assert (h == '0313cd7e58aa265b44dd1ea10265d1088a2f1c6d')
h = Ddeepcopy.hash_geometry(precision=1e-4)
assert (h == '0313cd7e58aa265b44dd1ea10265d1088a2f1c6d')
A.add_ref(pg.ellipse(radii=(12, 5), angle_resolution=2.5, layer=2))
B.add_polygon([[3, 4, 5], [6.7, 8.9, 10.15]], layer=0)
h = D.hash_geometry(precision=1e-4)
assert (h == 'c007b674e8053c11c877860f0552fff18676b68e')
h = Dcopy.hash_geometry(precision=1e-4)
assert (h == '2590bd786348ab684616eecdfdbcc9735b156e18')
h = Ddeepcopy.hash_geometry(precision=1e-4)
assert (h == '0313cd7e58aa265b44dd1ea10265d1088a2f1c6d')
# Device D using the pg.copy(D) or pg.deepcopy(D) function. pg.copy(D) # maintains the underlying connections to other Device, so that newly-created # Device uses the same references as the original device. Conversely, # pg.deepcopy() creates completely new copies of every underlying polygon and # reference, so that the newly-created Device shares no dependencies/references # with the original Device. These functions are especially useful if # you want to flatten a geometry without damaging the structure of the # original Device. D = Device() E1 = pg.ellipse(layer=1) E2 = pg.rectangle(layer=2) D.add_ref(E1) D.add_ref(E2).movex(15) D_copied = pg.copy(D) qp(D_copied) # Observe that if we add geometry to D now, D_copied is unaffected D.add_ref(pg.circle()) D.rotate(45) qp(D_copied) # However, note that if we now modify the underlying Devices (which # were referenced in D, and whose references were copied to D_copied), both # the original D and D_copied are affected: E1.add_polygon([[10, 20, 35], [1, 60, 40]], layer=3) qp(D_copied) # If instead we use pg.deepcopy(), all of the underlying references are copied # and used in the new D_deepcopied device. So if we change one of the old
def connect(x2, y2, middle_e_width, chip_width, chip_height, pos, radius,
length, e_e_gap, setpos):
mm = 10**3
um = 1
M = Path()
# Dimensions
margin = 0.5 * mm
to_pad_term = 0.1 * mm
pad = 50 * um
pitch = 100 * um
side_e_width = middle_e_width * 2
rad_gap = e_e_gap + middle_e_width / 2 + side_e_width / 2
if pos == 't':
Rt = radius + rad_gap * 2
elif pos == 'm':
Rt = radius + rad_gap
else:
Rt = radius
if setpos == 't':
set_bias = 0.6 * mm
elif setpos == 'm':
set_bias = 0.3 * mm
else:
set_bias = 0
x1 = (chip_width - length) / 2 - Rt - set_bias
y1 = margin + to_pad_term
points = np.array([(x1, y1), (x1, y2), (x2, y2)])
points = rotate90(points)
M = pp.smooth(
points=points,
radius=Rt,
corner_fun=pp.arc,
)
M.rotate(90)
X = CrossSection()
if pos == 'm':
X.add(width=middle_e_width, offset=0, layer=3)
else:
X.add(width=side_e_width, offset=0, layer=3)
L = M.extrude(X) #Left Trace
if pos == 'm':
# adding pads
S = pg.rectangle(size=(pad, pad), layer=3)
L.add_ref(S).move([x1 - pad / 2, margin])
L.add_ref(S).move([x1 - pad / 2 - pitch, margin])
L.add_ref(S).move([x1 - pad / 2 + pitch, margin])
xm1 = x1 - middle_e_width / 2
xm2 = x1 + middle_e_width / 2
xm3 = x1 + pad / 2
xm4 = x1 - pad / 2
xpts = (xm1, xm2, xm3, xm4)
ypts = (y1, y1, margin + pad, margin + pad)
L.add_polygon([xpts, ypts], layer=3)
xt1 = xm1 + middle_e_width + e_e_gap
xt2 = xt1 + side_e_width
xt3 = xm3 + pitch
xt4 = xm4 + pitch
xpts = (xt1, xt2, xt3, xt4)
ypts = (y1, y1, margin + pad, margin + pad)
L.add_polygon([xpts, ypts], layer=3)
xb1 = xm1 - side_e_width - e_e_gap
xb2 = xm1 - e_e_gap
xb3 = xm3 - pitch
xb4 = xm4 - pitch
xpts = (xb1, xb2, xb3, xb4)
ypts = (y1, y1, margin + pad, margin + pad)
L.add_polygon([xpts, ypts], layer=3)
R = pg.copy(L) # Right Trace
R.mirror((chip_width / 2, chip_height), (chip_width / 2, 0))
D = Device('trace')
D << L
D << R
return D
from phidl import quickplot as qp
from phidl import Device
E = Device()
E.add_ref(pg.ellipse(layer = {0,1}))
#X = pg.ellipse(layer = {0,1})
D = pg.extract(E, layers = [0,1])
qp(D) # quickplot the geometry
create_image(D, 'extract')
# example-copy
import phidl.geometry as pg
from phidl import quickplot as qp
X = pg.ellipse()
D = pg.copy(X)
qp(D) # quickplot the geometry
create_image(D, 'copy')
# example-deepcopy
import phidl.geometry as pg
from phidl import quickplot as qp
X = pg.ellipse()
D = pg.deepcopy(X)
qp(D) # quickplot the geometry
create_image(D, 'deepcopy')
# example-copy_layer
import phidl.geometry as pg
from phidl import quickplot as qp
y_p = 0
#electrode size and spacing
x_s = 100 * um
y_s = ΔY
x_space = 50 * um
#First one is ground
for i in range(0, 8):
D << pg.rectangle(size=(x_s, y_s), layer=70).move(
[x_p + (i * (x_s + x_space)), y_p])
D.write_gds('mac_0.gds')
##make the final layout with all of the device copies and whatnot##
for i in range(0, 9):
D_cpy = pg.copy(D)
T << D_cpy.move([0, Y0 + i * ΔY - height / 2])
#Extend electrodes to top and bottom of chip
y_s = y_s + 728
ebond_yoff = 11208
for i in range(0, 8):
T << pg.rectangle(size=(x_s, y_s), layer=70).move(
[x_p + (i * (x_s + x_space)), y_p])
T << pg.rectangle(size=(x_s, y_s), layer=70).move(
[x_p + (i * (x_s + x_space)), y_p + ebond_yoff])
T.write_gds('mac_0_final.gds')