def __init__(self, name, cells=None):
Wafer_GridStyle.__init__(self, name=name, cells=cells, block_gap=1200.)
# The placement of the wafer alignment markers
am_x = 1.5e4
am_y = 1.5e4
self.align_pts = np.array([am_x, am_y])
self.align_pts = np.vstack((self.align_pts, self.align_pts *
(-1, 1))) # Reflect about y-axis
self.align_pts = np.vstack((self.align_pts, self.align_pts *
(1, -1))) # Reflect about x-axis
self.wafer_r = wafer_r
self.block_size = np.array([35e3, 35e3])
self._place_blocks(radius=self.wafer_r + 5e3)
self.add_blocks()
self.add_wafer_outline(layers=l_drawing)
self.add_dashed_dicing_marks(layers=[l_lgBeam])
self.add_block_labels(layers=[l_lgBeam])
# self.add_prealignment_markers(layers=[l_lgBeam])
self.add_tem_membranes([0.08, 0.012, 0.028, 0.044], 2000, 1, l_smBeam)
self.add_theory_cells()
self.add_chip_labels()
bottom = np.array([0, -self.wafer_r * 0.9])
# top = np.array([0, -1]) * bottom
self.add_waferLabel(waferLabel, l_drawing, pos=bottom)
def __init__(self, name, cells=None):
Wafer_GridStyle.__init__(self, name=name, cells=cells, block_gap=1200.)
# The placement of the wafer alignment markers
am_x = 1.5e4
am_y = 1.5e4
self.align_pts = np.array([am_x, am_y])
self.align_pts = np.vstack(
(self.align_pts, self.align_pts * (-1, 1))) # Reflect about y-axis
self.align_pts = np.vstack(
(self.align_pts, self.align_pts * (1, -1))) # Reflect about x-axis
# Size of the chip and placement:
self.wafer_r = 25e3 # 2" wafer
self.block_size = np.array([10e3, 10e3]) # 1 cm chip
self._place_blocks(
radius=self.wafer_r + 5e3
) # distance of the center of the chip with respect to the center of the wafer
self.add_blocks()
self.add_wafer_outline(layers=l_drawing) # draws wafer
self.add_dashed_dicing_marks(layers=[l_markers]) # Add dicing lines
self.add_subdicing_marks(200, 5,
layers=[l_markers
]) # Perpendicular dicing lines
self.add_block_labels(l_markers, unique_ids=True,
load_ids=True) # Chip ID
self.add_prealignment_markers(layers=[l_markers]) # Pre-align. Marks
self.add_chip_labels() # Wafer and Pattern name on each chip
bottom = np.array([0, -self.wafer_r * 0.9])
self.add_waferLabel(waferLabel, l_drawing, pos=bottom)
def __init__(self, name, cells=None):
Wafer_GridStyle.__init__(self, name=name, cells=cells, block_gap=1200.)
# The placement of the wafer alignment markers
am_x = 1.5e4
am_y = 1.5e4
self.align_pts = np.array([am_x, am_y])
self.align_pts = np.vstack((self.align_pts, self.align_pts *
(-1, 1))) # Reflect about y-axis
self.align_pts = np.vstack((self.align_pts, self.align_pts *
(1, -1))) # Reflect about x-axis
self.wafer_r = 25e3
self.block_size = np.array([10e3, 10e3])
self._place_blocks(radius=self.wafer_r + 5e3)
self.add_blocks()
self.add_wafer_outline(layers=l_drawing)
self.add_dashed_dicing_marks(layers=[l_lgBeam])
self.add_subdicing_marks(200, 5, layers=[l_lgBeam])
self.add_block_labels(l_lgBeam, unique_ids=True, load_ids=True)
self.add_prealignment_markers(layers=[l_lgBeam])
self.add_tem_membranes([0.02, 0.035, 0.050], 1000, 1, l_smBeam)
self.add_theory_cells()
self.add_chip_labels()
self.add_cleave_xsection_nws()
# self.add_blockLabels(l_lgBeam)
# self.add_cellLabels(l_lgBeam)
bottom = np.array([0, -self.wafer_r * 0.9])
# top = np.array([0, -1]) * bottom
self.add_waferLabel(waferLabel, l_drawing, pos=bottom)
def __init__(self, name, cells=None):
Wafer_GridStyle.__init__(self, name=name, cells=cells, block_gap=1200.)
# The placement of the wafer alignment markers
am_x = 1.5e4
am_y = 1.5e4
self.align_pts = np.array([am_x, am_y])
self.align_pts = np.vstack(
(self.align_pts, self.align_pts * (-1, 1))) # Reflect about y-axis
self.align_pts = np.vstack(
(self.align_pts, self.align_pts * (1, -1))) # Reflect about x-axis
self.wafer_r = 25e3
self.block_size = np.array([10e3, 10e3])
self._place_blocks(radius=self.wafer_r + 5e3)
# if glbAlignmentMarks:
# self.add_aligment_marks(l_lgBeam)
# self.add_orientation_text(l_lgBeam)
# self.add_dicing_marks() # l_lgBeam, mkWidth=mkWidth Width of dicing marks
self.add_blocks()
self.add_wafer_outline(layers=l_drawing)
self.add_dashed_dicing_marks(layers=[l_lgBeam])
self.add_subdicing_marks(200, 5, layers=[l_lgBeam])
self.add_block_labels(l_lgBeam, quasi_unique_labels=True)
self.add_prealignment_markers(layers=[l_lgBeam])
self.add_tem_membranes([0.02, 0.04, 0.06, 0.08], 500, 1, l_smBeam)
self.add_theory_cells()
self.add_chip_labels()
# self.add_blockLabels(l_lgBeam)
# self.add_cellLabels(l_lgBeam)
bottom = np.array([0, -self.wafer_r * 0.9])
# top = np.array([0, -1]) * bottom
self.add_waferLabel(waferLabel, l_drawing, pos=bottom)
def __init__(self, name, cells=None):
Wafer_GridStyle.__init__(self, name=name, cells=cells, block_gap=1200.)
# The placement of the wafer alignment markers
am_x = 1.5e4
am_y = 1.5e4
self.align_pts = np.array([am_x, am_y])
self.align_pts = np.vstack(
(self.align_pts, self.align_pts * (-1, 1))) # Reflect about y-axis
self.align_pts = np.vstack(
(self.align_pts, self.align_pts * (1, -1))) # Reflect about x-axis
# Size of the chip and placement:
self.wafer_r = 25e3 # 2" wafer
self.block_size = np.array([10e3, 10e3]) # 1 cm chip
self._place_blocks(radius=self.wafer_r +
5e3) # top-right corner of the chip array
self.add_blocks()
self.add_wafer_outline(layers=l_drawing) # draws wafer
self.add_dashed_dicing_marks(layers=[l_lgBeam]) # Add dicing lines
self.add_subdicing_marks(200, 5,
layers=[l_lgBeam
]) # Perpendicular dicing lines
self.add_block_labels(l_lgBeam, unique_ids=True,
load_ids=True) # Chip ID
self.add_prealignment_markers(layers=[l_lgBeam]) # Pre-align. Marks
self.add_contacts(pad_size, finger_width, finger_length, l_LGBeam)
#self.add_tem_membranes([0.02, 0.035, 0.050], 1000, 1, l_smBeam) # TEM Sections
#self.add_theory_cells() # Growth Section
#self.add_cleave_xsection_nws() # Cross-section Section
self.add_chip_labels() # Wafer and Pattern name on each chip
bottom = np.array([0, -self.wafer_r * 0.9])
self.add_waferLabel(waferLabel, l_drawing, pos=bottom)
topCell.add(smField4, origin=(dx / 2., -dy / 2.))
# topCell.add(centerAlignField, origin=(0., 0.))
theory_cell = make_theory_cell()
topCell.add(theory_cell, origin=(65., 55.))
# topCellArray = CellArray(topCell,1,1,(0,0),rotation=90)
# topCell = Cell('RotatedTopCell')
# topCell.add(topCellArray)
# %%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)
wafer = Wafer_GridStyle('MembranesWafer_GridStyle',
cells=[topCell],
block_gap=18000) # 28000)
wafer.wafer_r = wafer_r
wafer.block_size = np.array([34.7e3, 34.7e3])
wafer._place_blocks()
wafer.add_wafer_outline(layers=l_drawing)
# wafer.add_dicing_marks()
# wafer.add_dicing_crosses()
lblx = 17350 - 867
lbly = 17350
wafer.o_text = {
'A': (lblx, lbly - 1857),
'B': (-lblx, lbly - 1857),
'C': (-lblx, -lbly - 1857),
'D': (lblx, -lbly - 1857)
}
