def test_port_remove():
D = Device()
D.add_port(name='test123', midpoint=(5.7, 9.2), orientation=37)
D.add_port(name='test456', midpoint=(1.5, 6.7), orientation=99)
E = Device()
d = E << D
D.remove(D.ports['test123'])
assert (len(D.ports) == 1)
assert (len(d.ports) == 1)
assert (D.ports['test456'])
assert (d.ports['test456'])
#============================================================================== # Removing geometry #============================================================================== # If you want, you can remove DeviceReferences or Polygons with D.remove() # Let's add some geometry to a blank Device D: D = Device() myell1 = D.add_ref(pg.L()) mytee2 = D.add_ref(pg.tee().movex(15)) mypoly1 = D.add_polygon([(8, 6, 7, 9), (6, 8, 9, 5)]) mypoly2 = D.add_polygon([(0, 0), (1, 1), (1, 3), (-3, 3)]).movey(-5) qp(D) # Now we can remove two of the elements we don't want anymore D.remove(mytee2) D.remove(mypoly2) qp(D) #============================================================================== # Save / export to SVG #============================================================================== # For figure-quality publications sometimes you want to save your geometry # as a more convenient vector file format like SVG (for Inkscape, Illustrator, # etc). For that purpose you can use the write_svg() command from phidl.utilities import write_svg D = Device() D << pg.snspd_expanded(layer=1) D << pg.snspd_expanded(layer=2).rotate(45) write_svg(D, filename='MyGeometryFigure.svg')
