topCell.add(smField3, origin=(-dx / 2., -dy / 2.))
topCell.add(smField4, origin=(dx / 2., -dy / 2.))
topCell.add(centerLeftAlignField, origin=(-dx / 2, 0.))
topCell.add(centerRightAlignField, origin=(dx / 2, 0.))
topCell.add(centerAlignField, origin=(0., 0.))
topCell.spacing = np.array([4000., 4000.])
# %%Create the layout and output GDS file
layout = Layout('LIBRARY')
if putOnWafer: # Fit as many patterns on a 2inch wafer as possible
wafer = MBE100Wafer('MembranesWafer', cells=[topCell])
layout.add(wafer)
# layout.show()
else: # Only output a single copy of the pattern (not on a wafer)
layout.add(topCell)
layout.show()
filestring = str(waferVer) + '_' + WAFER_ID + '_' + date.today().strftime(
"%d%m%Y") + ' dMark' + str(tDicingMarks)
filename = filestring.replace(' ', '_') + '.gds'
layout.save(filename)
cell_layout = Layout('LIBRARY')
cell_layout.add(wafer.blocks[0])
cell_layout.save(filestring.replace(' ', '_') + '_block' + '.gds')
# Output up chip for doing aligned jobs
layout_field = Layout('LIBRARY')
layout_field.add(topCell)
layout_field.save(filestring.replace(' ', '_') + '_2mmField.gds')
topCell.add(smField, origin=(sm_orig_x, sm_orig_y))
topCell.add(mdField, origin=(md_coord_x, md_coord_y))
topCell.add(lgField, origin=(lg_orig_x, lg_orig_y))
topCell.add(lgField_label)
# %%Create the layout and output GDS file
wafer = MBE100Wafer('MembranesWafer', cells=[topCell])
fileID = "Char_" + PATTERN
filestring = fileID + str(
waferVer) + '_' + WAFER_ID + '_' + date.today().strftime("%d%m%Y")
# Output the whole wafer
layout = Layout('LIBRARY')
layout.add(wafer)
# layout.show()
layout.save(filestring.replace(' ', '_') + '_wafer' + '.gds')
# Output single chip
cell_layout = Layout('LIBRARY')
cell_layout.add(wafer.blocks[0])
# cell_layout.show()
cell_layout.save(filestring.replace(' ', '_') + '_chip' + '.gds')
# Output topCell
layout_field = Layout('LIBRARY')
layout_field.add(topCell)
# layout_field.show()
layout_field.save(filestring.replace(' ', '_') + '_smallFields.gds')
# Add everything together to a top cell
topCell = Cell("TopCell")
topCell.add(lgField)
smFrameSpacing = 400 # Spacing between the three small frames
dx = smFrameSpacing + smFrameSize
dy = smFrameSpacing + smFrameSize
topCell.add(smField1, origin=(-dx / 2., dy / 2.))
topCell.add(smField2, origin=(dx / 2., dy / 2.))
topCell.add(smField3, origin=(-dx / 2., -dy / 2.))
topCell.add(smField4, origin=(dx / 2., -dy / 2.))
topCell.add(centerAlignField, origin=(0., 0.))
topCell.spacing = np.array([12000., 12000.])
# %%Create the layout and output GDS file
layout = Layout('LIBRARY')
if putOnWafer: # Fit as many patterns on a 2inch wafer as possible
wafer = MBE100Wafer('MembranesWafer', cells=[topCell])
layout.add(wafer)
# layout.show()
else: # Only output a single copy of the pattern (not on a wafer)
layout.add(topCell)
layout.show()
filestring = str(waferVer) + '_' + WAFER_ID + '_' + date.today().strftime("%d%m%Y") + ' dMark' + str(tDicingMarks)
filename = filestring.replace(' ', '_') + '.gds'
layout.save(filename)
cell_layout = Layout('LIBRARY')
cell_layout.add(wafer.blocks[0])
cell_layout.save(filestring.replace(' ', '_') + '_block' + '.gds')
10.0, 1, nm_width, 1.0, 0, l_smBeam)
QP_sm = Cell('QuantumPlayground_W{:.0f}'.format(nm_width * 1000))
QP_sm.add(cell_AB_Diamond_sm, origin=(-30, 30))
QP_sm.add(cell_AB_DiamondNoBuffer_sm, origin=(-10, 30))
QP_sm.add(cell_XShape, origin=(-30, 10))
QP_sm.add(cell_XShapeNoBuffer, origin=(-10, 10))
QP_sm.add(cell_HashTag, origin=(-30, -10))
QP_sm.add(cell_HashTagNoBuffer, origin=(-10, -10))
QP_sm.add(cell_Triangle_sm, origin=(-30, -30))
QP_sm.add(cell_TriangleNoBuffer_sm, origin=(-10, -30))
QP_sm.add(cell_AB_Hexagon_sm, origin=(10, 30))
QP_sm.add(cell_AB_HexagonNoBuffer_sm, origin=(30, 30))
QP_sm.add(cell_StarShape, origin=(10, 10))
QP_sm.add(cell_StarShapeNoBuffer, origin=(30, 10))
QP_sm.add(cell_Window, origin=(10, -10))
QP_sm.add(cell_WindowNoBuffer, origin=(30, -10))
TopCell.add(QP_sm,
origin=(-qp_spacing + 2 * i * qp_spacing, -qp_spacing))
return TopCell
if __name__ == "__main__":
TopCell = make_qp()
# Add the copied cell to a Layout and save
layout = Layout('LIBRARY')
layout.add(TopCell)
layout.save('QuantumPlayground_v1.0.gds')
]
xmax_cell = Cell('MerryChristmas')
for i, xmas_text in enumerate(xmas_texts):
xmas_text.translate(
tuple(
np.array(-xmas_text.bounding_box.mean(0)) +
np.array([20, -80 - i * 10.]))) # Center justify label
xmax_cell.add(xmas_text)
TopCell = Cell('GrowthTheoryTopCell')
TopCell.add(wheel1, origin=(-100., -60.))
TopCell.add(wheel2, origin=(-100., -65.))
TopCell.add(PitchDep, origin=(-200., -280.))
# TopCell.add3(TheorySlitElong, origin=(-250., -50))
TopCell.add(LenWidDep, origin=(-200., -50.))
# TopCell.add(hexagon_array, origin=(-100., -50))
# TopCell.add(circles_array, origin=(-75., -50.))
# TopCell.add(triangle_down_array, origin=(-50., -50))
# TopCell.add(triangle_up_array, origin=(-25., -50))
TopCell.add(xmax_cell, origin=(0, 50))
return TopCell
if __name__ == "__main__":
TopCell = make_theory_cell_3br()
# Add the copied cell to a Layout and save
layout = Layout('LIBRARY')
layout.add(TopCell)
layout.save('GrowthTheoryCell_3BD.gds')
arrayHeight = 20.
arrayWidth = 20.
arraySpacing = 10.
spacing = 0.5
length = [arrayWidth]
widths = [0.01, 0.015, 0.020, 0.030, 0.040, 0.050]
#widths = [0.008, 0.016, 0.024, 0.032, 0.040, 0.048]
pitches = [1.0, 2.0, 4.0]
for j, width in enumerate(widths):
for i, pitch in enumerate(pitches):
PitchDep.add(makeSlitArray2(pitch, spacing, width, length, 0,
arrayHeight, arrayWidth, arraySpacing,
l_smBeam),
origin=(i * 1.5 * arrayWidth, j * 1.5 * arrayHeight))
TopCell = Cell('GrowthTheoryTopCell')
TopCell.add(PitchDep, origin=(0., 0.))
# # TODO: Add the branched growth shapes
return TopCell
if __name__ == "__main__":
TopCell = make_theory_cell()
# Add the copied cell to a Layout and save
layout = Layout('LIBRARY')
layout.add(TopCell)
layout.save('NMDoseTest.gds')
# Create the layout and output GDS file
layout = Layout('LIBRARY', precision=1e-10)
wafer = MBEWafer('MembranesWafer', wafer_r=wafer_r, cells=[topCell], cell_gap=CELL_GAP, mkWidth=tDicingMarks,
cellsAtEdges=False)
file_string = str(waferVer)
filename = file_string.replace(' ', '_')
# Add pattern for ellipsometry check of SiO2 etching
size = 2000
rect = Rectangle((size / 2., size / 2.), (-size / 2., -size / 2.), layer=10)
rectCell = Cell('EtchCheckSquare')
rectCell.add(rect)
rect_layout = Layout('LIBRARY')
rect_layout.add(rectCell)
rect_layout.save(filename + '_etchCheck.gds')
rect_layout.add(rectCell)
layout.add(wafer)
layout.save(filename + '.gds')
# Output down chip for doing aligned jobs
layout_down = Layout('LIBRARY')
layout_down.add(wafer.block_down)
layout_down.save(filename + '_downblock.gds')
# Output up chip for doing aligned jobs
layout_up = Layout('LIBRARY')
layout_up.add(wafer.block_up)
layout_up.save(filename + '_upblock.gds')
# topCell.add(smField2, origin=(dx / 2., dy / 2.))
# topCell.add(smField3, origin=(-dx / 2., -dy / 2.))
# topCell.add(smField4, origin=(dx / 2., -dy / 2.))
# topCell.add(centerLeftAlignField, origin=(-dx / 2, 0.))
# topCell.add(centerRightAlignField, origin=(dx / 2, 0.))
# topCell.add(centerAlignField, origin=(0., 0.))
# topCell.spacing = np.array([4000., 4000.])
# %%Create the layout and output GDS file
layout = Layout('LIBRARY')
if putOnWafer: # Fit as many patterns on a 2inch wafer as possible
wafer = MBE100Wafer('MembranesWafer', cells=[topCell])
layout.add(wafer)
# layout.show()
else: # Only output a single copy of the pattern (not on a wafer)
layout.add(topCell)
layout.show()
filestring = str(waferVer) + '_' + WAFER_ID + '_' + date.today().strftime("%d%m%Y") + ' dMark' + str(tDicingMarks)
filename = filestring.replace(' ', '_') + '.gds'
layout.save(filename)
# cell_layout = Layout('LIBRARY')
# cell_layout.add(wafer.blocks[0])
# cell_layout.save(filestring.replace(' ', '_') + '_block' + '.gds')
# # Output up chip for doing aligned jobs
# layout_field = Layout('LIBRARY')
# layout_field.add(topCell)
# layout_field.save(filestring.replace(' ', '_') + '_2mmField.gds')
# %%Create the layout and output GDS file
layout = Layout('LIBRARY')
if putOnWafer: # Fit as many patterns on a wafer as possible
wafer = MBEWafer('MembranesWafer', wafer_r=wafer_r, cells=[topCell], cell_gap=CELL_GAP, mkWidth=tDicingMarks,
cellsAtEdges=False)
layout.add(wafer)
# Try to poorly calculate the write time
freq = 20E6 # 20 GHz
spotsize = 100E-9 # 100nm beam
gridsize = np.sqrt(2) / 2. * spotsize
spotarea = gridsize ** 2.
waferarea = wafer.area() / 1E6 ** 2.
writetime = waferarea / spotarea / freq
time = timedelta(seconds=writetime)
print(('\nEstimated write time: \n' + str(time)))
# layout.show()
else: # Only output a single copy of the pattern (not on a wafer)
layout.add(topCell)
layout.show()
file_string = str(waferVer) + '_' + str(density) + ' dMark' + str(tDicingMarks)
filename = file_string.replace(' ', '_') + '.gds'
layout.save(filename)
# Output up chip for doing aligned jobs
layout_up = Layout('LIBRARY')
layout_up.add(lgField)
layout_up.save(filename + '_2mmfield.gds')
arrayHeight = 20.
arrayWidth = 20.
arraySpacing = 10.
spacing = 0.5
length = [arrayWidth]
widths = [0.020, 0.040, 0.080, 0.140, 0.220, 0.320]
#widths = [0.008, 0.016, 0.024, 0.032, 0.040, 0.048]
pitches = [1.0, 2.0, 4.0]
for j, width in enumerate(widths):
for i, pitch in enumerate(pitches):
PitchDep.add(makeSlitArray2(pitch, spacing, width, length, 0,
arrayHeight, arrayWidth, arraySpacing,
l_smBeam),
origin=(i * 1.5 * arrayWidth, j * 1.5 * arrayHeight))
TopCell = Cell('GrowthTheoryTopCell')
TopCell.add(PitchDep, origin=(0., 0.))
# # TODO: Add the branched growth shapes
return TopCell
if __name__ == "__main__":
TopCell = make_theory_cell()
# Add the copied cell to a Layout and save
layout = Layout('LIBRARY')
layout.add(TopCell)
layout.save('NMDoseTest_v2.gds')
# Create the layout and output GDS file
layout = Layout('LIBRARY', precision=1e-10)
wafer = MBEWafer('MembranesWafer',
wafer_r=wafer_r,
cells=[topCell],
cell_gap=CELL_GAP,
mkWidth=tDicingMarks,
cellsAtEdges=False)
filestring = str(waferVer) + '_' + WAFER_ID + '_' + date.today().strftime(
"%d%m%Y") + ' dMark' + str(tDicingMarks)
filename = filestring.replace(' ', '_')
layout.add(wafer)
layout.save(filename + '.gds')
# Output down chip for doing aligned jobs
layout_down = Layout('LIBRARY')
layout_down.add(wafer.block_down)
layout_down.save(filename + '_downblock.gds')
# Output up chip for doing aligned jobs
layout_up = Layout('LIBRARY')
layout_up.add(wafer.block_up)
layout_up.save(filename + '_upblock.gds')
# Output up chip for doing aligned jobs
layout_up = Layout('LIBRARY')
layout_up.add(lgField)
layout_up.save(filename + '_2mmfield.gds')
PitchDep = Cell('PitchDependence')
arrayHeight = 5.
arrayWidth = arrayHeight * 2.
arraySpacing = 10.
spacing = 0.5
length = [arrayWidth]
widths = [0.050, 0.100, 0.150, 0.200, 0.250]
wire_spacings = [0.100, 0.200, 0.400]
for j, width in enumerate(widths):
for i, wire_spacing in enumerate(wire_spacings):
PitchDep.add(makeSlitArray2(wire_spacing + width, spacing, width,
length, 0, arrayHeight, arrayWidth,
arraySpacing, l_smBeam),
origin=(i * 30, j * 20))
TopCell = Cell('GrowthTheoryTopCell')
TopCell.add(PitchDep, origin=(0., 0.))
# # TODO: Add the branched growth shapes
return TopCell
if __name__ == "__main__":
TopCell = make_theory_cell()
# Add the copied cell to a Layout and save
layout = Layout('LIBRARY')
layout.add(TopCell)
layout.save('ContactsDoseTest.gds')