def side_pth_fab(pins):
out = []
w = fab_width
centre = (0, -2.6)
# Draw outline
nw, ne, se, sw, _ = draw_square(2.5 * (pins - 1) + 5, 8.2, centre, "F.Fab",
w)
out.append(fp_line(nw, ne, "F.Fab", w))
out.append(fp_line(ne, se, "F.Fab", w))
out.append(fp_line(se, (se[0] - 1, se[1]), "F.Fab", w))
out.append(
fp_line((se[0] - 1, se[1]), (se[0] - 1, se[1] - 2.2), "F.Fab", w))
out.append(
fp_line((se[0] - 1, se[1] - 2.2), (sw[0] + 1, sw[1] - 2.2), "F.Fab",
w))
out.append(fp_line(nw, sw, "F.Fab", w))
out.append(fp_line(sw, (sw[0] + 1, sw[1]), "F.Fab", w))
out.append(
fp_line((sw[0] + 1, sw[1]), (sw[0] + 1, sw[1] - 2.2), "F.Fab", w))
# Draw the pins
x = 1.25 * (pins - 1)
for pin in range(pins):
sq = draw_square(0.5, 0.75, (x, -0.125), "F.Fab", fab_width)
out += sq[4]
out.append(
fp_line((x - .25, -.25), (x + .25, -.25), "F.Fab", fab_width))
x -= 2.5
return out
def side_smd_fab(pins):
out = []
w = fab_width
# Draw outline
nw, ne, se, sw, sq = draw_square(2 * pins + 4, 8.9, (0, -3.5), "F.Fab", w)
out.append(fp_line(nw, (nw[0] + 3, nw[1]), "F.Fab", w))
out.append(
fp_line((nw[0] + 3, nw[1]), (nw[0] + 3, nw[1] + 1.4), "F.Fab", w))
out.append(
fp_line((nw[0] + 3, nw[1] + 1.4), (ne[0] - 3, ne[1] + 1.4), "F.Fab",
w))
out.append(
fp_line((ne[0] - 3, ne[1] + 1.4), (ne[0] - 3, ne[1]), "F.Fab", w))
out.append(fp_line((ne[0] - 3, ne[1]), ne, "F.Fab", w))
out.append(fp_line(ne, se, "F.Fab", w))
out.append(fp_line(se, sw, "F.Fab", w))
out.append(fp_line(sw, nw, "F.Fab", w))
# Draw pins
x = pins - 1
for pin in range(pins):
_, _, _, _, sq = draw_square(0.5, 2.5, (x, 2.5 / 2), "F.Fab", w)
out += sq
x -= 2
return out
def side_pth_fab(pins):
out = []
w = fab_width
centre = (0, -2.35)
# Draw outline
nw, ne, se, sw, _ = draw_square(2*(pins-1)+4, 11.7, centre, "F.Fab", w)
out.append(fp_line(nw, ne, "F.Fab", w))
out.append(fp_line(ne, se, "F.Fab", w))
out.append(fp_line(se, (se[0]-1, se[1]), "F.Fab", w))
out.append(fp_line((se[0]-1, se[1]), (se[0]-1, se[1]-4), "F.Fab", w))
out.append(fp_line((se[0]-1, se[1]-4), (sw[0]+1, sw[1]-4), "F.Fab", w))
out.append(fp_line(nw, sw, "F.Fab", w))
out.append(fp_line(sw, (sw[0]+1, sw[1]), "F.Fab", w))
out.append(fp_line((sw[0]+1, sw[1]), (sw[0]+1, sw[1]-4), "F.Fab", w))
# Draw side legs
x = (2*(pins-1)+4)//2 - 0.3
_, _, _, _, sq = draw_square(0.6, 0.8, (x, -2.1), "F.Fab", w)
out += sq
_, _, _, _, sq = draw_square(0.6, 0.8, (-x, -2.1), "F.Fab", w)
out += sq
# Draw the pins
x = pins - 1
for pin in range(pins):
sq = draw_square(0.5, 0.75, (x, -0.125), "F.Fab", fab_width)
out += sq[4]
out.append(fp_line((x-.25, -.25), (x+.25, -.25), "F.Fab", fab_width))
x -= 2
return out
def side_pth_fab(pins):
out = []
w = fab_width
centre = (0, -2.35)
# Draw outline
nw, ne, se, sw, _ = draw_square(2 * (pins - 1) + 4, 11.7, centre, "F.Fab",
w)
out.append(fp_line(nw, ne, "F.Fab", w))
out.append(fp_line(ne, se, "F.Fab", w))
out.append(fp_line(se, (se[0] - 1, se[1]), "F.Fab", w))
out.append(fp_line((se[0] - 1, se[1]), (se[0] - 1, se[1] - 4), "F.Fab", w))
out.append(
fp_line((se[0] - 1, se[1] - 4), (sw[0] + 1, sw[1] - 4), "F.Fab", w))
out.append(fp_line(nw, sw, "F.Fab", w))
out.append(fp_line(sw, (sw[0] + 1, sw[1]), "F.Fab", w))
out.append(fp_line((sw[0] + 1, sw[1]), (sw[0] + 1, sw[1] - 4), "F.Fab", w))
# Draw side legs
x = (2 * (pins - 1) + 4) // 2 - 0.3
_, _, _, _, sq = draw_square(0.6, 0.8, (x, -2.1), "F.Fab", w)
out += sq
_, _, _, _, sq = draw_square(0.6, 0.8, (-x, -2.1), "F.Fab", w)
out += sq
# Draw the pins
x = pins - 1
for pin in range(pins):
sq = draw_square(0.5, 0.75, (x, -0.125), "F.Fab", fab_width)
out += sq[4]
out.append(
fp_line((x - .25, -.25), (x + .25, -.25), "F.Fab", fab_width))
x -= 2
return out
def fab(conf):
"""
Generate a drawing of the chip on the Fab layer, including its outline,
the outline of the pins, and a pin 1 indicator.
"""
chip_w, chip_h = conf['chip_shape']
pin_w, pin_h = conf['pin_shape']
out = []
# Chip outline
nw, _, _, _, sq = draw_square(chip_w, chip_h, (0, 0), "F.Fab", fab_width)
out += sq
# Pin 1
centre = (nw[0] + fab_pin1_offset, nw[1] + fab_pin1_offset)
end = (centre[0], centre[1] + fab_pin1_r)
out.append(fp_circle(centre, end, "F.Fab", fab_width))
# Pins
leftr, bottomr, rightr, topr = pin_centres(conf)
idx = 1
for pin in leftr:
idx += 1
if idx - 1 in conf.get('skip_pins', []):
continue
xy = -(chip_w + pin_w) / 2.0, pin[1]
_, _, _, _, sq = draw_square(pin_w, pin_h, xy, "F.Fab", fab_width)
out += [sq[0], sq[2], sq[3]]
for pin in rightr:
idx += 1
if idx - 1 in conf.get('skip_pins', []):
continue
xy = (chip_w + pin_w) / 2.0, pin[1]
_, _, _, _, sq = draw_square(pin_w, pin_h, xy, "F.Fab", fab_width)
out += [sq[0], sq[1], sq[2]]
if conf['rows'] == 4:
for pin in topr:
idx += 1
if idx - 1 in conf.get('skip_pins', []):
continue
xy = pin[0], -(chip_h + pin_w) / 2.0
_, _, _, _, sq = draw_square(pin_h, pin_w, xy, "F.Fab", fab_width)
out += [sq[0], sq[1], sq[3]]
for pin in bottomr:
idx += 1
if idx - 1 in conf.get('skip_pins', []):
continue
xy = pin[0], (chip_h + pin_w) / 2.0
_, _, _, _, sq = draw_square(pin_h, pin_w, xy, "F.Fab", fab_width)
out += [sq[1], sq[2], sq[3]]
return out
def fab(conf):
"""
Generate a drawing of the chip on the Fab layer, including its outline,
the outline of the pins, and a pin 1 indicator.
"""
chip_w, chip_h = conf['chip_shape']
pin_w, pin_h = conf['pin_shape']
out = []
# Chip outline
nw, _, _, _, sq = draw_square(chip_w, chip_h, (0, 0), "F.Fab", fab_width)
out += sq
# Pin 1
centre = (nw[0] + fab_pin1_offset, nw[1] + fab_pin1_offset)
end = (centre[0], centre[1] + fab_pin1_r)
out.append(fp_circle(centre, end, "F.Fab", fab_width))
# Pins
leftr, bottomr, rightr, topr = pin_centres(conf)
idx = 1
for pin in leftr:
idx += 1
if idx - 1 in conf.get('skip_pins', []):
continue
xy = -(chip_w + pin_w) / 2.0, pin[1]
_, _, _, _, sq = draw_square(pin_w, pin_h, xy, "F.Fab", fab_width)
out += [sq[0], sq[2], sq[3]]
for pin in rightr:
idx += 1
if idx - 1 in conf.get('skip_pins', []):
continue
xy = (chip_w + pin_w) / 2.0, pin[1]
_, _, _, _, sq = draw_square(pin_w, pin_h, xy, "F.Fab", fab_width)
out += [sq[0], sq[1], sq[2]]
if conf['rows'] == 4:
for pin in topr:
idx += 1
if idx - 1 in conf.get('skip_pins', []):
continue
xy = pin[0], -(chip_h + pin_w) / 2.0
_, _, _, _, sq = draw_square(pin_h, pin_w, xy, "F.Fab", fab_width)
out += [sq[0], sq[1], sq[3]]
for pin in bottomr:
idx += 1
if idx - 1 in conf.get('skip_pins', []):
continue
xy = pin[0], (chip_h + pin_w) / 2.0
_, _, _, _, sq = draw_square(pin_h, pin_w, xy, "F.Fab", fab_width)
out += [sq[1], sq[2], sq[3]]
return out
def ctyd(conf):
row_pitch = conf['row_pitch']
pad_w, pad_h = conf['pad_shape']
chip_w, chip_h = conf['chip_shape']
if conf['rows'] == 2:
width = row_pitch + pad_w + 2 * ctyd_gap
height = chip_h + 2 * ctyd_gap
elif conf['rows'] == 4:
# We need to handle non-square chips slightly differently,
# depending on whether row_pitch is given as (w, h) or just a scalar.
if isinstance(row_pitch, float):
height = width = row_pitch + pad_w + 2 * ctyd_gap
else:
width = row_pitch[0] + pad_w + 2 * ctyd_gap
height = row_pitch[1] + pad_w + 2 * ctyd_gap
# Ensure courtyard lies on a specified grid
# (double the grid since we halve the width/height)
grid = 2*ctyd_grid
width = grid * int(math.ceil(width / (2*ctyd_grid)))
height = grid * int(math.ceil(height / (2*ctyd_grid)))
_, _, _, _, sq = draw_square(width, height, (0, 0), "F.CrtYd", ctyd_width)
return sq
def top_smd_fab(pins):
out = []
w = fab_width
# Outline
_, _, _, _, sq = draw_square(2*pins+4, 5.7, (0, 3.35), "F.Fab", w)
out += sq
# Pins
x = pins - 1
for pin in range(pins):
_, _, _, _, sq = draw_square(0.5, 2.5, (x, -0), "F.Fab", w)
out += sq
x -= 2
return out
def ctyd(conf):
chip_w, chip_h = conf['chip_shape']
if 'cols' in conf:
width, height = chip_w + 2 * ctyd_gap, chip_h + 2 * ctyd_gap
elif conf['rows'] == 2:
pad_w, pad_h = conf['pad_shape']
row_pitch = conf['row_pitch']
width = row_pitch + pad_w + 2 * ctyd_gap
height = chip_h + 2 * ctyd_gap
elif conf['rows'] == 4:
pad_w, pad_h = conf['pad_shape']
row_pitch = conf['row_pitch']
# We need to handle non-square chips slightly differently,
# depending on whether row_pitch is given as (w, h) or just a scalar.
if isinstance(row_pitch, float):
height = width = row_pitch + pad_w + 2 * ctyd_gap
else:
width = row_pitch[0] + pad_w + 2 * ctyd_gap
height = row_pitch[1] + pad_w + 2 * ctyd_gap
# Ensure courtyard lies on a specified grid
# (double the grid since we halve the width/height)
grid = 2 * ctyd_grid
width = grid * int(math.ceil(width / (2 * ctyd_grid)))
height = grid * int(math.ceil(height / (2 * ctyd_grid)))
_, _, _, _, sq = draw_square(width, height, (0, 0), "F.CrtYd", ctyd_width)
return sq
def fab(conf):
"""Generate a drawing of the chip on the Fab layer."""
out = []
cw, ch = conf['chip_shape']
pw, ph = conf['pin_shape']
w = fab_width
# Chip body
_, _, _, _, sq = draw_square(cw, ch, (0, 0), "F.Fab", w)
out += sq
# Pin 1 indicator
if conf.get('silk') in ("triangle", "internal_pin1", "external_pin1"):
out.append(fp_line(
(-cw/4, -ch/2), (-cw/4, ch/2), "F.Fab", w))
# Left pin
out.append(fp_line((-cw/2 - pw, -ph/2), (-cw/2 - pw, ph/2), "F.Fab", w))
if ph != ch:
out.append(fp_line((-cw/2 - pw, -ph/2), (-cw/2, -ph/2), "F.Fab", w))
out.append(fp_line((-cw/2 - pw, ph/2), (-cw/2, ph/2), "F.Fab", w))
# Right pin
out.append(fp_line((cw/2 + pw, -ph/2), (cw/2 + pw, ph/2), "F.Fab", w))
if ph != ch:
out.append(fp_line((cw/2 + pw, -ph/2), (cw/2, -ph/2), "F.Fab", w))
out.append(fp_line((cw/2 + pw, ph/2), (cw/2, ph/2), "F.Fab", w))
return out
def sfml_silk(pins):
out = []
l = "F.SilkS"
w = silk_width
a_x = (3.94 - 0.38) / 2.0
a_y = (3.05 - 1.52) / 2.0
nw, ne, se, sw, _ = draw_square(pins * 1.27 + 0.38 - w, 3.05 - w, (0, 0),
l, w)
out.append(fp_line(ne, (ne[0], ne[1] + a_y), l, w))
out.append(fp_line((ne[0], ne[1] + a_y), (ne[0] + a_x, ne[1] + a_y), l, w))
out.append(
fp_line((ne[0] + a_x, ne[1] + a_y), (se[0] + a_x, se[1] - a_y), l, w))
out.append(fp_line((se[0] + a_x, se[1] - a_y), (se[0], se[1] - a_y), l, w))
out.append(fp_line((se[0], se[1] - a_y), se, l, w))
out.append(fp_line(se, (se[0] - 0.3, se[1]), l, w))
out.append(fp_line((sw[0] + 0.3, sw[1]), sw, l, w))
out.append(fp_line(sw, (sw[0], sw[1] - a_y), l, w))
out.append(fp_line((sw[0], sw[1] - a_y), (sw[0] - a_x, sw[1] - a_y), l, w))
out.append(
fp_line((sw[0] - a_x, sw[1] - a_y), (nw[0] - a_x, nw[1] + a_y), l, w))
out.append(fp_line((nw[0] - a_x, nw[1] + a_y), (nw[0], nw[1] + a_y), l, w))
out.append(fp_line((nw[0], nw[1] + a_y), nw, l, w))
return out
def top_smd_fab(pins):
out = []
w = fab_width
# Outline
_, _, _, _, sq = draw_square(2 * pins + 4, 5.7, (0, 3.35), "F.Fab", w)
out += sq
# Pins
x = pins - 1
for pin in range(pins):
_, _, _, _, sq = draw_square(0.5, 2.5, (x, -0), "F.Fab", w)
out += sq
x -= 2
return out
def fab(conf):
"""Generate a drawing of the chip on the Fab layer."""
out = []
cw, ch = conf['chip_shape']
pw, ph = conf['pin_shape']
w = fab_width
# Chip body
_, _, _, _, sq = draw_square(cw, ch, (0, 0), "F.Fab", w)
out += sq
# Pin 1 indicator
if conf.get('silk') in ("triangle", "internal_pin1", "external_pin1"):
out.append(fp_line(
(-cw/4, -ch/2), (-cw/4, ch/2), "F.Fab", w))
# Left pin
out.append(fp_line((-cw/2 - pw, -ph/2), (-cw/2 - pw, ph/2), "F.Fab", w))
if ph != ch:
out.append(fp_line((-cw/2 - pw, -ph/2), (-cw/2, -ph/2), "F.Fab", w))
out.append(fp_line((-cw/2 - pw, ph/2), (-cw/2, ph/2), "F.Fab", w))
# Right pin
out.append(fp_line((cw/2 + pw, -ph/2), (cw/2 + pw, ph/2), "F.Fab", w))
if ph != ch:
out.append(fp_line((cw/2 + pw, -ph/2), (cw/2, -ph/2), "F.Fab", w))
out.append(fp_line((cw/2 + pw, ph/2), (cw/2, ph/2), "F.Fab", w))
return out
def ctyd(pins, h):
w = pins * 2.54 + 2 * ctyd_gap
h = h + 2 * ctyd_gap
grid = 2 * ctyd_grid
w = grid * int(math.ceil(w / grid))
h = grid * int(math.ceil(h / grid))
_, _, _, _, sq = draw_square(w, h, (0, 0), "F.CrtYd", ctyd_width)
return sq
def top_pth_ctyd(pins):
w = 2 * (pins - 1) + 4 + 2 * ctyd_gap
h = 5.3 + 2 * ctyd_gap
grid = 2 * ctyd_grid
w = grid * int(math.ceil(w / grid))
h = grid * int(math.ceil(h / grid))
_, _, _, _, sq = draw_square(w, h, (0, 0), "F.CrtYd", ctyd_width)
return sq
def top_pth_ctyd(pins):
w = 2*(pins-1)+4 + 2*ctyd_gap
h = 5.3 + 2*ctyd_gap
grid = 2*ctyd_grid
w = grid * int(math.ceil(w / grid))
h = grid * int(math.ceil(h / grid))
_, _, _, _, sq = draw_square(w, h, (0, 0), "F.CrtYd", ctyd_width)
return sq
def dil_ctyd(pins):
w = pins * 2.54 + 2 * ctyd_gap
h = 2*2.54 + 2 * ctyd_gap
grid = 2 * ctyd_grid
w = grid * int(math.ceil(w / grid))
h = grid * int(math.ceil(h / grid))
_, _, _, _, sq = draw_square(w, h, (0, 0), "F.CrtYd", ctyd_width)
return sq
def ctyd(pins):
w = pins * 1.27 + 3.94 + 2 * ctyd_gap
h = 6.35 + 2 * ctyd_gap
grid = 2 * ctyd_grid
w = grid * int(math.ceil(w / grid))
h = grid * int(math.ceil(h / grid))
_, _, _, _, sq = draw_square(w, h, (0, 0), "F.CrtYd", ctyd_width)
return sq
def ctyd(pins):
w = pins * 1.27 + 3.94 + 2 * ctyd_gap
h = 6.35 + 2 * ctyd_gap
grid = 2 * ctyd_grid
w = grid * int(math.ceil(w / grid))
h = grid * int(math.ceil(h / grid))
_, _, _, _, sq = draw_square(w, h, (0, 0), "F.CrtYd", ctyd_width)
return sq
def side_pth_ctyd(pins):
w = 2*(pins-1)+4 + 2*ctyd_gap
h = 11.7 + 2*ctyd_gap
grid = 2*ctyd_grid
w = grid * int(math.ceil(w / (2*ctyd_grid)))
h = grid * int(math.ceil(h / (2*ctyd_grid)))
centre = (0, -2.35)
_, _, _, _, sq = draw_square(w, h, centre, "F.CrtYd", ctyd_width)
return sq
def side_pth_ctyd(pins):
w = 2 * (pins - 1) + 4 + 2 * ctyd_gap
h = 11.7 + 2 * ctyd_gap
grid = 2 * ctyd_grid
w = grid * int(math.ceil(w / (2 * ctyd_grid)))
h = grid * int(math.ceil(h / (2 * ctyd_grid)))
centre = (0, -2.35)
_, _, _, _, sq = draw_square(w, h, centre, "F.CrtYd", ctyd_width)
return sq
def side_smd_ctyd(pins):
w = 2 * (pins - 1 + 1.45 + 1.8 + ctyd_gap)
h = 3.0 + 7.8 + 2 * ctyd_gap
grid = 2 * ctyd_grid
w = grid * int(math.ceil(w / (2 * ctyd_grid)))
h = grid * int(math.ceil(h / (2 * ctyd_grid)))
centre = (0, -2.55)
_, _, _, _, sq = draw_square(w, h, centre, "F.CrtYd", ctyd_width)
return sq
def side_smd_ctyd(pins):
w = 2 * (pins - 1 + 1.45 + 1.8 + ctyd_gap)
h = 3.0 + 7.8 + 2*ctyd_gap
grid = 2*ctyd_grid
w = grid * int(math.ceil(w / (2*ctyd_grid)))
h = grid * int(math.ceil(h / (2*ctyd_grid)))
centre = (0, -2.55)
_, _, _, _, sq = draw_square(w, h, centre, "F.CrtYd", ctyd_width)
return sq
def top_smd_ctyd(pins):
w = 1.25*(pins-1) + 2*3.6 + 2*ctyd_gap
h = 3.0 + 0.6 + 1.3 + 2*ctyd_gap
grid = 2 * ctyd_grid
w = grid * int(math.ceil(w / (2*ctyd_grid)))
h = grid * int(math.ceil(h / (2*ctyd_grid)))
y = h/2 - 1.3/2 - ctyd_gap
centre = (0, y)
_, _, _, _, sq = draw_square(w, h, centre, "F.CrtYd", ctyd_width)
return sq
def top_pth_fab(pins):
out = []
# Draw outline
_, _, _, _, sq = draw_square(2*(pins-1)+4, 5.3, (0, 0), "F.Fab", fab_width)
out += sq
# Draw side leg
x = pins - 1 + 1.5
_, _, _, _, sq = draw_square(.8, .8, (x, -1.7), "F.Fab", fab_width)
out += sq
# Draw pins
x = pins - 1
for pin in range(pins):
_, _, _, _, sq = draw_square(.5, .5, (x, 0), "F.Fab", fab_width)
out += sq
x -= 2
return out
def dil_silk(pins):
nw, ne, se, sw, _ = draw_square(pins * 2.54, 2 * 2.54, (0, 0), "F.SilkS",
silk_width)
layer = "F.SilkS"
w = silk_width
out = []
out.append(fp_line(nw, ne, layer, w))
out.append(fp_line(ne, se, layer, w))
out.append(fp_line(se, (1.27, se[1]), layer, w))
out.append(fp_line((-1.27, sw[1]), sw, layer, w))
out.append(fp_line(sw, nw, layer, w))
return out
def dil_silk(pins):
nw, ne, se, sw, _ = draw_square(
pins * 2.54, 2*2.54, (0, 0), "F.SilkS", silk_width)
l = "F.SilkS"
w = silk_width
out = []
out.append(fp_line(nw, ne, l, w))
out.append(fp_line(ne, se, l, w))
out.append(fp_line(se, (1.27, se[1]), l, w))
out.append(fp_line((-1.27, sw[1]), sw, l, w))
out.append(fp_line(sw, nw, l, w))
return out
def top_pth_fab(pins):
out = []
# Draw outline
_, _, _, _, sq = draw_square(2 * (pins - 1) + 4, 5.3, (0, 0), "F.Fab",
fab_width)
out += sq
# Draw side leg
x = pins - 1 + 1.5
_, _, _, _, sq = draw_square(.8, .8, (x, -1.7), "F.Fab", fab_width)
out += sq
# Draw pins
x = pins - 1
for pin in range(pins):
_, _, _, _, sq = draw_square(.5, .5, (x, 0), "F.Fab", fab_width)
out += sq
x -= 2
return out
def tfml_silk(pins):
out = []
l = "F.SilkS"
w = silk_width
nw, ne, se, sw, _ = draw_square(
pins * 1.27 + 3.18 - w, 5.72 - w, (0, 0), l, w)
out.append(fp_line((nw[0]+1.5, nw[1]), nw, l, w))
out.append(fp_line(nw, sw, l, w))
out.append(fp_line(sw, (sw[0]+1.5, sw[1]), l, w))
out.append(fp_line((se[0]-1.5, se[1]), (se[0], se[1]-1.5), l, w))
out.append(fp_line((se[0], se[1]-1.5), (ne[0], ne[1]+1.5), l, w))
out.append(fp_line((ne[0], ne[1]+1.5), (ne[0]-1.5, ne[1]), l, w))
return out
def top_smd_fab(pins):
out = []
w = fab_width
lyr = "F.Fab"
# Outline box
box_w = (pins-1)*1.25 + 2*3.6 - 2*2.1
box_h = 3.5 # XXX
box_y = box_h/2 + 0.2
nw, ne, se, sw, sq = draw_square(box_w, box_h, (0, box_y), lyr, w)
out += sq
# Mounting pins
_, _, _, _, sq = draw_square(1.8, 2.8, (nw[0]-1.8/2, sw[1]-2.8/2), lyr, w)
out += sq
_, _, _, _, sq = draw_square(1.8, 2.8, (ne[0]+1.8/2, sw[1]-2.8/2), lyr, w)
out += sq
# Connector pins
x = -(pins-1)/2 * 1.25
for pin in range(pins):
_, _, _, _, sq = draw_square(0.32, 0.6, (x, 2.6), lyr, w)
out += sq
x += 1.25
return out
def tfml_silk(pins):
out = []
l = "F.SilkS"
w = silk_width
nw, ne, se, sw, _ = draw_square(pins * 1.27 + 3.18 - w, 5.72 - w, (0, 0),
l, w)
out.append(fp_line((nw[0] + 1.5, nw[1]), nw, l, w))
out.append(fp_line(nw, sw, l, w))
out.append(fp_line(sw, (sw[0] + 1.5, sw[1]), l, w))
out.append(fp_line((se[0] - 1.5, se[1]), (se[0], se[1] - 1.5), l, w))
out.append(fp_line((se[0], se[1] - 1.5), (ne[0], ne[1] + 1.5), l, w))
out.append(fp_line((ne[0], ne[1] + 1.5), (ne[0] - 1.5, ne[1]), l, w))
return out
def side_pth_silk(pins):
out = []
w = silk_width
centre = (0, -2.6)
nw, ne, se, sw, _ = draw_square(2.5*(pins-1)+5, 8.2, centre, "F.SilkS", w)
out.append(fp_line(nw, ne, "F.SilkS", w))
out.append(fp_line(ne, se, "F.SilkS", w))
out.append(fp_line(se, (se[0]-1, se[1]), "F.SilkS", w))
out.append(fp_line((se[0]-1, se[1]), (se[0]-1, se[1]-2.2), "F.SilkS", w))
out.append(fp_line(nw, sw, "F.SilkS", w))
out.append(fp_line(sw, (sw[0]+1, sw[1]), "F.SilkS", w))
out.append(fp_line((sw[0]+1, sw[1]), (sw[0]+1, sw[1]-2.2), "F.SilkS", w))
return out
def side_smd_fab(pins):
out = []
w = fab_width
# Draw outline
nw, ne, se, sw, sq = draw_square(2*pins+4, 8.9, (0, -3.5), "F.Fab", w)
out.append(fp_line(nw, (nw[0]+3, nw[1]), "F.Fab", w))
out.append(fp_line((nw[0]+3, nw[1]), (nw[0]+3, nw[1]+1.4), "F.Fab", w))
out.append(fp_line((nw[0]+3, nw[1]+1.4), (ne[0]-3, ne[1]+1.4), "F.Fab", w))
out.append(fp_line((ne[0]-3, ne[1]+1.4), (ne[0]-3, ne[1]), "F.Fab", w))
out.append(fp_line((ne[0]-3, ne[1]), ne, "F.Fab", w))
out.append(fp_line(ne, se, "F.Fab", w))
out.append(fp_line(se, sw, "F.Fab", w))
out.append(fp_line(sw, nw, "F.Fab", w))
# Draw pins
x = pins - 1
for pin in range(pins):
_, _, _, _, sq = draw_square(0.5, 2.5, (x, 2.5/2), "F.Fab", w)
out += sq
x -= 2
return out
def side_pth_silk(pins):
out = []
w = silk_width
centre = (0, -2.35)
nw, ne, se, sw, _ = draw_square(2*(pins-1)+4, 11.7, centre, "F.SilkS", w)
out.append(fp_line(nw, ne, "F.SilkS", w))
out.append(fp_line(ne, se, "F.SilkS", w))
out.append(fp_line(se, (se[0]-1, se[1]), "F.SilkS", w))
out.append(fp_line((se[0]-1, se[1]), (se[0]-1, se[1]-4), "F.SilkS", w))
out.append(fp_line(nw, sw, "F.SilkS", w))
out.append(fp_line(sw, (sw[0]+1, sw[1]), "F.SilkS", w))
out.append(fp_line((sw[0]+1, sw[1]), (sw[0]+1, sw[1]-4), "F.SilkS", w))
return out
def top_smd_silk(pins):
out = []
w = silk_width
l = "F.SilkS"
nw, ne, se, sw, _ = draw_square(2 * pins + 4, 5.7, (0, 3.35), l, w)
# Top left corner
out.append(fp_line((nw[0], nw[1] + 2.4), (nw[0], nw[1]), l, w))
out.append(fp_line((nw[0], nw[1]), (nw[0] + 2.3, nw[1]), l, w))
# Top right corner
out.append(fp_line((ne[0], ne[1] + 2.4), (ne[0], ne[1]), l, w))
out.append(fp_line((ne[0], ne[1]), (ne[0] - 2.3, ne[1]), l, w))
# Bottom
out.append(fp_line((sw[0] + 1.8, sw[1]), (se[0] - 1.8, se[1]), l, w))
return out
def top_smd_silk(pins):
out = []
w = silk_width
lyr = "F.SilkS"
box_w = (pins-1)*1.25 + 2*3.6 - 2*2.1 - silk_width
box_h = 3.5 # XXX
box_y = box_h/2 + 0.2
nw, ne, se, sw, _ = draw_square(box_w, box_h, (0, box_y), lyr, w)
out.append(fp_line((nw[0]+0.8, nw[1]), nw, lyr, w))
out.append(fp_line(nw, sw, lyr, w))
out.append(fp_line(sw, se, lyr, w))
out.append(fp_line(se, ne, lyr, w))
out.append(fp_line((ne[0]-0.8, ne[1]), ne, lyr, w))
return out
def top_smd_silk(pins):
out = []
w = silk_width
l = "F.SilkS"
nw, ne, se, sw, _ = draw_square(2*pins+4, 5.7, (0, 3.35), l, w)
# Top left corner
out.append(fp_line((nw[0], nw[1]+2.4), (nw[0], nw[1]), l, w))
out.append(fp_line((nw[0], nw[1]), (nw[0]+2.3, nw[1]), l, w))
# Top right corner
out.append(fp_line((ne[0], ne[1]+2.4), (ne[0], ne[1]), l, w))
out.append(fp_line((ne[0], ne[1]), (ne[0]-2.3, ne[1]), l, w))
# Bottom
out.append(fp_line((sw[0]+1.8, sw[1]), (se[0]-1.8, se[1]), l, w))
return out
def side_pth_fab(pins):
out = []
w = fab_width
centre = (0, -2.6)
# Draw outline
nw, ne, se, sw, _ = draw_square(2.5*(pins-1)+5, 8.2, centre, "F.Fab", w)
out.append(fp_line(nw, ne, "F.Fab", w))
out.append(fp_line(ne, se, "F.Fab", w))
out.append(fp_line(se, (se[0]-1, se[1]), "F.Fab", w))
out.append(fp_line((se[0]-1, se[1]), (se[0]-1, se[1]-2.2), "F.Fab", w))
out.append(fp_line((se[0]-1, se[1]-2.2), (sw[0]+1, sw[1]-2.2), "F.Fab", w))
out.append(fp_line(nw, sw, "F.Fab", w))
out.append(fp_line(sw, (sw[0]+1, sw[1]), "F.Fab", w))
out.append(fp_line((sw[0]+1, sw[1]), (sw[0]+1, sw[1]-2.2), "F.Fab", w))
# Draw the pins
x = 1.25*(pins - 1)
for pin in range(pins):
sq = draw_square(0.5, 0.75, (x, -0.125), "F.Fab", fab_width)
out += sq[4]
out.append(fp_line((x-.25, -.25), (x+.25, -.25), "F.Fab", fab_width))
x -= 2.5
return out
def side_smd_silk(pins):
out = []
w = silk_width
l = "F.SilkS"
nw, ne, se, sw, _ = draw_square(2*pins+4, 8.9, (0, -3.5), l, w)
out.append(fp_line(nw, (nw[0]+3, nw[1]), l, w))
out.append(fp_line((nw[0]+3, nw[1]), (nw[0]+3, nw[1]+1.4), l, w))
out.append(fp_line((nw[0]+3, nw[1]+1.4), (ne[0]-3, ne[1]+1.4), l, w))
out.append(fp_line((ne[0]-3, ne[1]+1.4), (ne[0]-3, ne[1]), l, w))
out.append(fp_line((ne[0]-3, ne[1]), ne, l, w))
out.append(fp_line(ne, (ne[0], ne[1]+2.8-w), l, w))
out.append(fp_line(nw, (nw[0], nw[1]+2.8-w), l, w))
out.append(fp_line(se, (se[0], se[1]-2.3+w), l, w))
out.append(fp_line(se, (se[0]-1.8, se[1]), l, w))
out.append(fp_line(sw, (sw[0], sw[1]-2.3+w), l, w))
out.append(fp_line(sw, (sw[0]+1.8, sw[1]), l, w))
return out
def side_smd_silk(pins):
out = []
w = silk_width
l = "F.SilkS"
nw, ne, se, sw, _ = draw_square(2 * pins + 4, 8.9, (0, -3.5), l, w)
out.append(fp_line(nw, (nw[0] + 3, nw[1]), l, w))
out.append(fp_line((nw[0] + 3, nw[1]), (nw[0] + 3, nw[1] + 1.4), l, w))
out.append(
fp_line((nw[0] + 3, nw[1] + 1.4), (ne[0] - 3, ne[1] + 1.4), l, w))
out.append(fp_line((ne[0] - 3, ne[1] + 1.4), (ne[0] - 3, ne[1]), l, w))
out.append(fp_line((ne[0] - 3, ne[1]), ne, l, w))
out.append(fp_line(ne, (ne[0], ne[1] + 2.8 - w), l, w))
out.append(fp_line(nw, (nw[0], nw[1] + 2.8 - w), l, w))
out.append(fp_line(se, (se[0], se[1] - 2.3 + w), l, w))
out.append(fp_line(se, (se[0] - 1.8, se[1]), l, w))
out.append(fp_line(sw, (sw[0], sw[1] - 2.3 + w), l, w))
out.append(fp_line(sw, (sw[0] + 1.8, sw[1]), l, w))
return out
def ctyd(conf):
row_pitch = conf['row_pitch']
pad_w, pad_h = conf['pad_shape']
chip_w, chip_h = conf['chip_shape']
width = row_pitch + pad_w + 2 * ctyd_gap
if conf['rows'] == 2:
height = chip_h + 2 * ctyd_gap
elif conf['rows'] == 4:
height = width
# Ensure courtyard lies on a specified grid
# (double the grid since we halve the width/height)
grid = 2 * ctyd_grid
width = grid * int(math.ceil(width / (2 * ctyd_grid)))
height = grid * int(math.ceil(height / (2 * ctyd_grid)))
_, _, _, _, sq = draw_square(width, height, (0, 0), "F.CrtYd", ctyd_width)
return sq
def ctyd(conf):
row_pitch = conf['row_pitch']
pad_w, pad_h = conf['pad_shape']
chip_w, chip_h = conf['chip_shape']
width = row_pitch + pad_w + 2 * ctyd_gap
if conf['rows'] == 2:
height = chip_h + 2 * ctyd_gap
elif conf['rows'] == 4:
height = width
# Ensure courtyard lies on a specified grid
# (double the grid since we halve the width/height)
grid = 2*ctyd_grid
width = grid * int(math.ceil(width / (2*ctyd_grid)))
height = grid * int(math.ceil(height / (2*ctyd_grid)))
_, _, _, _, sq = draw_square(width, height, (0, 0), "F.CrtYd", ctyd_width)
return sq
def ctyd(conf):
"""Draw a courtyard around the part."""
gap = conf.get('courtyard_gap', ctyd_gap)
# Compute width and height of courtyard
width = max(conf['pad_shape'][0] + conf['pitch'], conf['chip_shape'][0])
height = max(conf['pad_shape'][1], conf['chip_shape'][1])
width += 2 * gap
height += 2 * gap
# Ensure courtyard lies on a specified grid
# (double the grid since we halve the width/height)
grid = 2*ctyd_grid
width = grid * int(math.ceil(width / (2*ctyd_grid)))
height = grid * int(math.ceil(height / (2*ctyd_grid)))
# Render courtyard
_, _, _, _, sq = draw_square(width, height, (0, 0), "F.CrtYd", ctyd_width)
return sq
def ctyd(conf):
"""Draw a courtyard around the part."""
gap = conf.get('courtyard_gap', ctyd_gap)
# Compute width and height of courtyard
width = max(conf['pad_shape'][0] + conf['pitch'], conf['chip_shape'][0])
height = max(conf['pad_shape'][1], conf['chip_shape'][1])
width += 2 * gap
height += 2 * gap
# Ensure courtyard lies on a specified grid
# (double the grid since we halve the width/height)
grid = 2*ctyd_grid
width = grid * int(math.ceil(width / (2*ctyd_grid)))
height = grid * int(math.ceil(height / (2*ctyd_grid)))
# Render courtyard
_, _, _, _, sq = draw_square(width, height, (0, 0), "F.CrtYd", ctyd_width)
return sq
def internal_silk(conf):
"""
Generate an internal silkscreen, with an outline of the part and a pin1
indicator.
"""
out = []
pins = conf['pins']
rows = conf['rows']
pin_pitch = conf['pin_pitch']
row_pitch = conf['row_pitch']
pad_shape = conf['pad_shape']
width = row_pitch - pad_shape[0] - 2 * silk_pad_igap
if rows == 2:
height = (((pins / rows) - 1) * pin_pitch)
elif rows == 4:
height = width
ir = silk_pin1_ir
if ir > width:
ir = width
c = (0, 0)
layer = "F.SilkS"
nw, ne, se, sw, sq = draw_square(width, height, c, layer, silk_width)
out.append(fp_line((nw[0] + ir, nw[1]), ne, layer, silk_width))
out.append(fp_line(ne, se, layer, silk_width))
out.append(fp_line(se, sw, layer, silk_width))
out.append(fp_line(sw, (nw[0], nw[1] + ir), layer, silk_width))
start = (nw[0], nw[1] + ir)
end = (nw[0] + ir, nw[1])
out.append(fp_line(start, end, "F.SilkS", silk_width))
# Old circular pin1 indicator:
# out += sq
# start = nw
# end = (start[0] + silk_pin1_ir, start[1])
# out.append(fp_arc(start, end, 90, "F.SilkS", silk_width))
return out
def internal_silk(conf):
"""
Generate an internal silkscreen, with an outline of the part and a pin1
indicator.
"""
out = []
pins = conf['pins']
rows = conf['rows']
pin_pitch = conf['pin_pitch']
row_pitch = conf['row_pitch']
pad_shape = conf['pad_shape']
width = row_pitch - pad_shape[0] - 2 * silk_pad_igap
if rows == 2:
height = (((pins / rows) - 1) * pin_pitch)
elif rows == 4:
height = width
ir = silk_pin1_ir
if ir > width:
ir = width
c = (0, 0)
layer = "F.SilkS"
nw, ne, se, sw, sq = draw_square(width, height, c, layer, silk_width)
out.append(fp_line((nw[0] + ir, nw[1]), ne, layer, silk_width))
out.append(fp_line(ne, se, layer, silk_width))
out.append(fp_line(se, sw, layer, silk_width))
out.append(fp_line(sw, (nw[0], nw[1] + ir), layer, silk_width))
start = (nw[0], nw[1] + ir)
end = (nw[0] + ir, nw[1])
out.append(fp_line(start, end, "F.SilkS", silk_width))
# Old circular pin1 indicator:
# out += sq
# start = nw
# end = (start[0] + silk_pin1_ir, start[1])
# out.append(fp_arc(start, end, 90, "F.SilkS", silk_width))
return out
def sfml_fab(pins):
out = []
l = "F.Fab"
w = fab_width
a_x = (3.94 - 0.38) / 2.0
a_y = (3.05 - 1.52) / 2.0
nw, ne, se, sw, _ = draw_square(
pins * 1.27 + 0.38, 3.05, (0, 0), l, w)
out.append(fp_line(nw, ne, l, w))
out.append(fp_line(ne, (ne[0], ne[1]+a_y), l, w))
out.append(fp_line((ne[0], ne[1]+a_y), (ne[0]+a_x, ne[1]+a_y), l, w))
out.append(fp_line((ne[0]+a_x, ne[1]+a_y), (se[0]+a_x, se[1]-a_y), l, w))
out.append(fp_line((se[0]+a_x, se[1]-a_y), (se[0], se[1]-a_y), l, w))
out.append(fp_line((se[0], se[1]-a_y), se, l, w))
out.append(fp_line(se, sw, l, w))
out.append(fp_line(sw, (sw[0], sw[1]-a_y), l, w))
out.append(fp_line((sw[0], sw[1]-a_y), (sw[0]-a_x, sw[1]-a_y), l, w))
out.append(fp_line((sw[0]-a_x, sw[1]-a_y), (nw[0]-a_x, nw[1]+a_y), l, w))
out.append(fp_line((nw[0]-a_x, nw[1]+a_y), (nw[0], nw[1]+a_y), l, w))
out.append(fp_line((nw[0], nw[1]+a_y), nw, l, w))
return out
def sfml_fab(pins):
out = []
l = "F.Fab"
w = fab_width
a_x = (3.94 - 0.38) / 2.0
a_y = (3.05 - 1.52) / 2.0
nw, ne, se, sw, _ = draw_square(
pins * 1.27 + 0.38, 3.05, (0, 0), l, w)
out.append(fp_line(nw, ne, l, w))
out.append(fp_line(ne, (ne[0], ne[1]+a_y), l, w))
out.append(fp_line((ne[0], ne[1]+a_y), (ne[0]+a_x, ne[1]+a_y), l, w))
out.append(fp_line((ne[0]+a_x, ne[1]+a_y), (se[0]+a_x, se[1]-a_y), l, w))
out.append(fp_line((se[0]+a_x, se[1]-a_y), (se[0], se[1]-a_y), l, w))
out.append(fp_line((se[0], se[1]-a_y), se, l, w))
out.append(fp_line(se, sw, l, w))
out.append(fp_line(sw, (sw[0], sw[1]-a_y), l, w))
out.append(fp_line((sw[0], sw[1]-a_y), (sw[0]-a_x, sw[1]-a_y), l, w))
out.append(fp_line((sw[0]-a_x, sw[1]-a_y), (nw[0]-a_x, nw[1]+a_y), l, w))
out.append(fp_line((nw[0]-a_x, nw[1]+a_y), (nw[0], nw[1]+a_y), l, w))
out.append(fp_line((nw[0], nw[1]+a_y), nw, l, w))
return out
def sfml_silk(pins):
out = []
l = "F.SilkS"
w = silk_width
a_x = (3.94 - 0.38) / 2.0
a_y = (3.05 - 1.52) / 2.0
nw, ne, se, sw, _ = draw_square(
pins * 1.27 + 0.38 - w, 3.05 - w, (0, 0), l, w)
out.append(fp_line(ne, (ne[0], ne[1]+a_y), l, w))
out.append(fp_line((ne[0], ne[1]+a_y), (ne[0]+a_x, ne[1]+a_y), l, w))
out.append(fp_line((ne[0]+a_x, ne[1]+a_y), (se[0]+a_x, se[1]-a_y), l, w))
out.append(fp_line((se[0]+a_x, se[1]-a_y), (se[0], se[1]-a_y), l, w))
out.append(fp_line((se[0], se[1]-a_y), se, l, w))
out.append(fp_line(se, (se[0]-0.3, se[1]), l, w))
out.append(fp_line((sw[0]+0.3, sw[1]), sw, l, w))
out.append(fp_line(sw, (sw[0], sw[1]-a_y), l, w))
out.append(fp_line((sw[0], sw[1]-a_y), (sw[0]-a_x, sw[1]-a_y), l, w))
out.append(fp_line((sw[0]-a_x, sw[1]-a_y), (nw[0]-a_x, nw[1]+a_y), l, w))
out.append(fp_line((nw[0]-a_x, nw[1]+a_y), (nw[0], nw[1]+a_y), l, w))
out.append(fp_line((nw[0], nw[1]+a_y), nw, l, w))
return out
def tfml_fab(pins):
_, _, _, _, sq = draw_square(
pins * 1.27 + 3.18, 5.72, (0, 0), "F.Fab", fab_width)
return sq
def internal_silk(conf):
"""Draw internal silkscreen."""
w = conf['pitch'] - conf['pad_shape'][0] - 2*silk_pad_igap
h = conf['chip_shape'][1] - silk_width
_, _, _, _, sq = draw_square(w, h, (0, 0), "F.SilkS", silk_width)
return sq
def top_pth_silk(pins):
s = draw_square(2*(pins-1)+4, 5.3, (0, 0), "F.SilkS", silk_width)
return s[4]
def sil_silk(pins):
_, _, _, _, sq = draw_square(pins * 2.54, 2.54, (0, 0), "F.SilkS",
silk_width)
return sq
def kk_fab(pins):
w = fab_width
nw, ne, se, sw, sq = draw_square(pins * 2.54, 6.35, (0, 0), "F.Fab", w)
sq.append(fp_line((nw[0], nw[1] + 2.0), (ne[0], ne[1] + 2.0), "F.Fab", w))
return sq
def fab(pins, h):
_, _, _, _, sq = draw_square(pins * 2.54, h, (0, 0), "F.Fab", fab_width)
return sq
def internal_silk(conf):
"""Draw internal silkscreen."""
w = conf['pitch'] - conf['pad_shape'][0] - 2*silk_pad_igap
h = conf['chip_shape'][1] - silk_width
_, _, _, _, sq = draw_square(w, h, (0, 0), "F.SilkS", silk_width)
return sq
def sil_silk(pins):
_, _, _, _, sq = draw_square(
pins * 2.54, 2.54, (0, 0), "F.SilkS", silk_width)
return sq
def dil_fab(pins):
_, _, _, _, sq = draw_square(
pins * 2.54, 2*2.54, (0, 0), "F.Fab", fab_width)
return sq