def where_wire(self, r):
for cellc in self.cellcenters:
if in_xslab(r, cx=self.resolution / 4, d=self.wirecut):
return 0
if in_xcyl(r, cy=self.size_y/2+self.resolution/4, cz=cellc, rad=self.wirethick) or \
in_xcyl(r, cy= -self.size_y/2+self.resolution/4, cz=cellc, rad=self.wirethick):
return self.return_value # (do not change this line)
return 0
def where_wire(self, r):
for cellc in self.cellcenters:
if in_xslab(r, cx=self.resolution/4, d=self.wirecut):
return 0
if in_xcyl(r, cy=self.size_y/2+self.resolution/4, cz=cellc, rad=self.wirethick) or \
in_xcyl(r, cy= -self.size_y/2+self.resolution/4, cz=cellc, rad=self.wirethick):
return self.return_value # (do not change this line)
return 0
def where_wire(self, r):
if in_xcyl(r, cy=0, cz=-self.ldist/2, rad=self.rcore1): ## first grid
return self.return_value # (do not change this line)
if in_xcyl(r, cy=self.tshift, cz=self.ldist/2, rad=self.rcore2) or \
in_xcyl(r, cy=self.tshift-self.size_y, cz=self.ldist/2, rad=self.rcore2): ## second grid may be transversally shifted
return self.return_value # (do not change this line)
return 0
def where_wire(self, r):
if in_xcyl(r, cy=0, cz=-self.ldist/2, rad=self.rcore1): ## first grid
return self.return_value # (do not change this line)
if in_xcyl(r, cy=self.tshift, cz=self.ldist/2, rad=self.rcore2) or \
in_xcyl(r, cy=self.tshift-self.size_y, cz=self.ldist/2, rad=self.rcore2): ## second grid may be transversally shifted
return self.return_value # (do not change this line)
return 0
def where_TiO2(self, r):
#if in_sphere(r, cx=0, cy=0, cz=0, rad=self.radius) and not in_sphere(r, cx=0, cy=0, cz=0, rad=self.radius*.75):
for cellc in self.cellcenters:
if self.orientation=="E":
if in_xcyl(r, cy=self.resolution/4, cz=cellc, rad=self.radius):
return self.return_value # (do not change this line)
elif self.orientation=="H":
if in_ycyl(r, cx=self.resolution/4, cz=cellc, rad=self.radius):
return self.return_value # (do not change this line)
return 0
def where_TiO2(self, r):
#if in_sphere(r, cx=0, cy=0, cz=0, rad=self.radius) and not in_sphere(r, cx=0, cy=0, cz=0, rad=self.radius*.75):
for cellc in self.cellcenters:
if self.orientation=="E":
if in_xcyl(r, cy=self.resolution/4, cz=cellc, rad=self.radius):
return self.return_value # (do not change this line)
elif self.orientation=="H":
if in_ycyl(r, cx=self.resolution/4, cz=cellc, rad=self.radius):
return self.return_value # (do not change this line)
return 0
def where_wire(self, r):
dd=self.resolution/4
for cellc in self.cellcenters:
## define the wires
if in_xcyl(r, cy=self.size_y/2, cz=cellc, rad=self.wirethick) or \
in_xcyl(r, cy= -self.size_y/2, cz=cellc, rad=self.wirethick):
return self.return_value # (do not change this line)
if ( # define the first splitting of SRR
not (r.z()>cellc+self.radius/2 and in_xslab(r, cx=dd, d=self.splitting))
# define the 2nd splitting for symmetric SRR
and not (r.z()<cellc-self.radius/2 and in_xslab(r, cx=dd, d=self.splitting2))):
# make the ring (without the central bar)
if (in_ycyl(r, cx=dd, cz=cellc, rad=self.radius+self.srrthick/2) # outer radius
and in_yslab(r, cy=dd, d=self.srrthick) # delimit to a disc
and not in_ycyl(r, cx=dd, cz=cellc, rad=self.radius-self.srrthick/2)): # subtract inner radius
return self.return_value # (do not change this line)
# optional capacitor pads
if (self.splitting > 0
and in_xcyl(r, cy=dd, cz=cellc+self.radius, rad=self.capacitorr)
and in_xslab(r, cx=dd, d=self.splitting+2*self.srrthick)):
return self.return_value # (do not change this line)
# optional capacitor pads on second splitting
if (self.splitting2 > 0
and in_xcyl(r, cy=dd, cz=cellc-self.radius, rad=self.capacitorr)
and in_xslab(r, cx=dd, d=self.splitting2+2*self.srrthick)):
return self.return_value # (do not change this line)
if (self.cbarthick > 0
# def splitting in the central bar for ESRR (the bar is completely disabled if insplitting high enough)
and not (in_zslab(r,cz=cellc,d=self.radius) and in_xslab(r, cx=dd, d=self.insplitting))):
if (in_ycyl(r, cx=dd, cz=cellc, rad=self.radius+self.srrthick/2) # outer radius
and in_yslab(r, cy=dd, d=self.srrthick) # delimit to a disc
and in_zslab(r,cz=cellc,d=self.cbarthick)): # but allow the central bar
return self.return_value # (do not change this line)
if ((self.insplitting > 0)
and in_xcyl(r, cy=dd, cz=cellc, rad=self.incapacitorr)
and in_xslab(r, cx=dd, d=self.insplitting+2*self.srrthick)): # optional capacitor pads
return self.return_value # (do not change this line)
return 0
def where_wire(self, r):
dd=self.resolution/4
for cellc in self.cellcenters:
## define the wires
if in_xcyl(r, cy=self.size_y/2, cz=cellc, rad=self.wirethick) or \
in_xcyl(r, cy= -self.size_y/2, cz=cellc, rad=self.wirethick):
return self.return_value # (do not change this line)
if ( # define the first splitting of SRR
not (r.z()>cellc+self.radius/2 and in_xslab(r, cx=dd, d=self.splitting))
# define the 2nd splitting for symmetric SRR
and not (r.z()<cellc-self.radius/2 and in_xslab(r, cx=dd, d=self.splitting2))):
# make the ring (without the central bar)
if (in_ycyl(r, cx=dd, cz=cellc, rad=self.radius+self.srrthick/2) # outer radius
and in_yslab(r, cy=dd, d=self.srrthick) # delimit to a disc
and not in_ycyl(r, cx=dd, cz=cellc, rad=self.radius-self.srrthick/2)): # subtract inner radius
return self.return_value # (do not change this line)
# optional capacitor pads
if (self.splitting > 0
and in_xcyl(r, cy=dd, cz=cellc+self.radius, rad=self.capacitorr)
and in_xslab(r, cx=dd, d=self.splitting+2*self.srrthick)):
return self.return_value # (do not change this line)
# optional capacitor pads on second splitting
if (self.splitting2 > 0
and in_xcyl(r, cy=dd, cz=cellc-self.radius, rad=self.capacitorr)
and in_xslab(r, cx=dd, d=self.splitting2+2*self.srrthick)):
return self.return_value # (do not change this line)
if (self.cbarthick > 0
# def splitting in the central bar for ESRR (the bar is completely disabled if insplitting high enough)
and not (in_zslab(r,cz=cellc,d=self.radius) and in_xslab(r, cx=dd, d=self.insplitting))):
if (in_ycyl(r, cx=dd, cz=cellc, rad=self.radius+self.srrthick/2) # outer radius
and in_yslab(r, cy=dd, d=self.srrthick) # delimit to a disc
and in_zslab(r,cz=cellc,d=self.cbarthick)): # but allow the central bar
return self.return_value # (do not change this line)
if ((self.insplitting > 0)
and in_xcyl(r, cy=dd, cz=cellc, rad=self.incapacitorr)
and in_xslab(r, cx=dd, d=self.insplitting+2*self.srrthick)): # optional capacitor pads
return self.return_value # (do not change this line)
return 0
def where_wire(self, r):
for cellz in self.cell_centers():
if (in_xcyl(r, cy=self.resolution/4, cz=cellz, rad=self.radius)):
return self.return_value
#if (in_zslab(r, cz=cellz, d=self.radius)): # and in_yslab(r, cy=.7e-6, d=60e-6-self.radius)): # XXX
#return self.return_value
#if abs(cellz)>self.yspacing*1.5:
#if (in_zslab(r, cz=cellz, d=self.radius)): # and in_yslab(r, cy=.7e-6, d=60e-6-self.radius)): # XXX
#return self.return_value
#else:
#if (in_zslab(r, cz=cellz, d=self.radius*2)): # and in_yslab(r, cy=.7e-6, d=60e-6-self.radius)): # XXX
#return self.return_value
return 0
def where_metal(self, r):
return 0 ## nometal XXX
for cellz in self.cell_centers():
if in_xcyl(r, cy=0e-6, cz=self.wzofs + cellz,
rad=self.wlth) or in_ycyl(
r, cx=0e-6, cz=self.wzofs + cellz, rad=self.wlth):
return self.return_value
return 0 ## nometal
for cellz in self.cell_centers():
#if (in_xslab(r, cx=0e-6, d=self.wtth) or in_yslab(r, cy=0e-6, d=self.wtth)) and \
if (in_yslab(r, cy=0e-6, d=self.wtth)) and \
in_zslab(r, cz=self.wzofs+cellz, d=self.wlth):
return self.return_value
return 0
def where_TiO2(self, r):
#if in_sphere(r, cx=0, cy=0, cz=0, rad=self.radius) and not in_sphere(r, cx=0, cy=0, cz=0, rad=self.radius*.75):
if in_xcyl(r, cy=0, cz=0, rad=self.radius):
return self.return_value # (do not change this line)
return 0
def where_filling(self, r):
for cellz in self.cell_centers():
if (in_xcyl(r, cy=self.resolution/4, cz=cellz+self.resolution/4, rad=self.radius) and
not in_xslab(r, cx=self.resolution/4, d=self.xlen)) :
return self.return_value
return 0
def where_TiO2(self, r):
#if in_sphere(r, cx=0, cy=0, cz=0, rad=self.radius) and not in_sphere(r, cx=0, cy=0, cz=0, rad=self.radius*.75):
if in_xcyl(r, cy=0, cz=0, rad=self.radius):
return self.return_value # (do not change this line)
return 0
