def _curveToOne(self, pt1, pt2, pt3): hits = splitCubic(self.currentPt, pt1, pt2, pt3, self.value, self.isHorizontal) for i in range(len(hits)-1): # a number of intersections is possible. Just take the # last point of each segment. if not self.contourIndex in self.hits: self.hits[self.contourIndex] = [] if self.isHorizontal: self.hits[self.contourIndex].append(round(hits[i][-1][0], 4)) else: self.hits[self.contourIndex].append(round(hits[i][-1][1], 4)) if self.isHorizontal and pt3[1] == self.value: # it could happen if not self.contourIndex in self.hits: self.hits[self.contourIndex] = [] self.hits[self.contourIndex].append(pt3[0]) if (not self.isHorizontal) and (pt3[0] == self.value): # it could happen if not self.contourIndex in self.hits: self.hits[self.contourIndex] = [] self.hits[self.contourIndex].append(pt3[1]) self.currentPt = pt3
def _curveToOne(self, pt1, pt2, pt3): hits = splitCubic(self.currentPt, pt1, pt2, pt3, self.value, self.isHorizontal) for i in range(len(hits)-1): # a number of intersections is possible. Just take the # last point of each segment. if not self.contourIndex in self.hits: self.hits[self.contourIndex] = [] if self.isHorizontal: self.hits[self.contourIndex].append(round(hits[i][-1][0], 4)) else: self.hits[self.contourIndex].append(round(hits[i][-1][1], 4)) if self.isHorizontal and pt3[1] == self.value: # it could happen if not self.contourIndex in self.hits: self.hits[self.contourIndex] = [] self.hits[self.contourIndex].append(pt3[0]) if (not self.isHorizontal) and (pt3[0] == self.value): # it could happen if not self.contourIndex in self.hits: self.hits[self.contourIndex] = [] self.hits[self.contourIndex].append(pt3[1]) self.currentPt = pt3
def drawing_h():
# Calling glyph
font = CurrentFont ()
glyph = font['h']
glyph.clear()
## Variabili Locali [n]
# Innesti
x_inc_upp_h = (raccordoUpp_eff)
y_inc_upp_h = -(raccordoUpp_eff * 2 / inn_eff)
# Espansione
exp_h = exp_eff * nor_eff
# Larghezza
wdt_h = exp_h * xht_eff
# Monilineatià (per neutralizzare la monolinearità a valori alti)
mon_h=tools.lin(mon_eff,1,1,0.01,0.2)
# Monilineatià 2 (relazione fra punto medio esterno sinistro e monolinearità
mon_h2=tools.lin(mon_h,1,mon_h/2,0.01,mon_h)
# Correzioni otticch sqe_lft/sqe_rgt/sqi_lft/sqi_rgt
opt_sqe_lft_h=1#.95
opt_sqe_rgt_h=1#tools.lin(sqe_eff,1,1,0.54,1.5)
opt_sqi_lft_h=1
opt_sqi_rgt_h=1#tools.lin(sqi_eff,1,1,0.54,1)
# Rientro punto medio esterno sinistro
rtr_extLft_h=mon_h2 * tsv_eff
#disallineamento punto centale superiore ƒ(wgt,mon,exp)
delta_dis_h_wgt=tools.lin(wgt_nom,0.01,0,0.45,0.04)
delta_dis_h_mon=tools.lin(mon_nom,0.01,0,1,0.02)
delta_h=delta_dis_h_wgt+delta_dis_h_mon
dis_h=delta_h * xht_eff
#innalzamento innesti (#inn_eff=ƒ(mon_h , wgt , exp)
inc_lft_ex = inn_eff * xht_eff
inc_rgt_ex = inn_eff * xht_eff
inc_lft_in = inn_eff * xht_eff
inc_rgt_in = inn_eff * xht_eff
tch_h = mon_h * tcv_eff
### UpperLeft
## punti di ancoraggio
#ext
pnt_1 = (dis_h) , (xht_eff+ovs_eff)
hnd_1 = (dis_h + ((-wdt_h/2 - tcv_eff/2 + rtr_extLft_h) * sqe_eff * opt_sqe_lft_h)) , (xht_eff + ovs_eff)
hnd_2 = (-wdt_h/2 + tsv_eff/2 - rtr_extLft_h - x_inc_upp_h) , ((xht_eff/2) + ((xht_eff/2 + ovs_eff) * sqe_eff))
pnt_2 = (-wdt_h/2 + tsv_eff/2 - rtr_extLft_h - x_inc_upp_h) , (xht_eff/2 + y_inc_upp_h)
#int
pnt_3 = (-wdt_h/2 + tsv_eff/2 - x_inc_upp_h) , (xht_eff/2 + y_inc_upp_h)
hnd_3 = (-wdt_h/2+tsv_eff/2 - x_inc_upp_h) , ((xht_eff/2) + ((xht_eff/2 + ovs_eff - tch_h) * sqi_eff))
hnd_4 = ((-wdt_h/2+tcv_eff/2) * sqi_eff * opt_sqi_lft_h) , (xht_eff + ovs_eff - tch_h)
pnt_4 = 0 , (xht_eff + ovs_eff - tch_h)
### Cut
# Punti di ancoraggio
interUpExt = (-wdt_h/2 + tsv_eff/2) , (xht_eff)
interUpInt = (-wdt_h/2 + tsv_eff/2) , 0
cExt = splitCubic (pnt_1,hnd_1,hnd_2,pnt_2,interUpExt[0],False)
cInt = splitCubic (pnt_3,hnd_3,hnd_4,pnt_4,interUpInt[0],False)
#ext
pnt_1 = ((cExt [0])[0])
pnt_2 = ((cExt [0])[3])
hnd_1 = ((cExt [0])[1])
hnd_2 = ((cExt [0])[2])
#int
pnt_3 = ((cInt [1])[0])
pnt_4 = ((cInt [1])[3])
hnd_3 = ((cInt [1])[1])
hnd_4 = ((cInt [1])[2])
# Disegno
tools.genericQuarter(glyph,
(pnt_1),
(hnd_1), (hnd_2), (pnt_2),
(pnt_3),
(hnd_3), (hnd_4), (pnt_4))
### StemLeft
## punti di ancoraggio
pnt_1 = (-wdt_h/2 + tsv_eff/2) , (xht_eff + asc_eff)
pnt_2 = (-wdt_h/2 - tsv_eff/2) , (xht_eff + asc_eff)
pnt_3 = (-wdt_h/2 - tsv_eff/2) , 0
pnt_4 = (-wdt_h/2 + tsv_eff/2) , 0
points_list = [(pnt_1) , (pnt_2) , (pnt_3) , (pnt_4)]
#disegno
tools.drawPolyByPoints(glyph, points_list)
### UpperRight
## punti di ancoraggio
#ext
pnt_1 = (wdt_h/2+tsv_eff/2) , (inc_rgt_ex)
hnd_1 = wdt_h/2+tsv_eff/2 , (inc_rgt_ex + ((xht_eff + ovs_eff - inc_rgt_ex) * sqe_eff))
hnd_2 = (dis_h + ((wdt_h/2 + tcv_eff/2 - rtr_extLft_h) * sqe_eff * opt_sqe_rgt_h)) , (xht_eff + ovs_eff)
pnt_2 = (dis_h) , (xht_eff + ovs_eff)
#int
pnt_3 = 0 , (xht_eff + ovs_eff - tch_h)
hnd_3 = ((wdt_h/2 - tcv_eff/2) * sqi_eff * opt_sqi_rgt_h) , (xht_eff + ovs_eff - tch_h)
hnd_4 = (wdt_h/2 - tsv_eff/2) , (inc_rgt_in + ((xht_eff + ovs_eff - tch_h - inc_rgt_in) * sqi_eff))
pnt_4 = (wdt_h/2-tsv_eff/2) , (inc_rgt_in)
# Disegno
tools.genericQuarter(glyph,
(pnt_1),
(hnd_1), (hnd_2), (pnt_2),
(pnt_3),
(hnd_3), (hnd_4), (pnt_4))
### StemRight
## punti di ancoraggio
pnt_1 = (wdt_h/2 + tsv_eff/2) , (inc_rgt_ex)
pnt_2 = (wdt_h/2 - tsv_eff/2) , (inc_rgt_in)
pnt_3 = (wdt_h/2 - tsv_eff/2) , 0
pnt_4 = (wdt_h/2 + tsv_eff/2) , 0
points_list = [(pnt_1) , (pnt_2) , (pnt_3) , (pnt_4)]
#disegno
tools.drawPolyByPoints(glyph, points_list)
glyph.leftMargin = mrgStm_eff
glyph.rightMargin = mrgCrv_eff
return glyph
def drawing_c():
# Calling glyph
font = CurrentFont ()
glyph = font['c']
glyph.clear()
# To show cutting shape or the cutting glyph set the on-off switchs 'on'
showCuttingShape = off
cut = on
## Variabili Locali [c]
#Larghezza
wdt_c = exp_eff * xht_eff
# Monolinearità
mon_c = tools.lin(mon_eff,1,1,0.01,0.2)
# Spessore Curve Orizzontali
tch_c = tcv_eff * mon_c
# Raccordo
x_inc_upp_c = (raccordoUpp_eff)
y_inc_upp_c = -(raccordoUpp_eff * 2 / inn_eff)
x_inc_dwn_c = (raccordoDwn_eff)
y_inc_dwn_c = -(raccordoDwn_eff * 2 / inn_eff)
# Disallineamento
delta_dis_c_wgt = tools.lin(wgt_eff,0.1,0,0.45,0.04)
delta_dis_c_mon = tools.lin(mon_eff,0.01,0,1,0.02)
dis_c = (delta_dis_c_wgt + delta_dis_c_mon) * xht_eff
#spessore curva verticale destra
deltaCurva_c = tools.lin(mon_eff,0.1,0.1,1,1)
tcv_effRgt_c = tsv_eff * deltaCurva_c
### Cutting shape
## punti di ancoraggio
gap_upp_c = 0.3
dst_upp_c = 0.2
inn_upp_c = 0.2
gap_dwn_c = 0.35
dst_dwn_c = 0.1
inn_dwn_c = 0.2
dstCttShape_upp_c = (dst_upp_c * xht_eff)
gapCttShape_upp_c = (gap_upp_c * xht_eff)
innCttShape_upp_c = (inn_upp_c * xht_eff)
dstCttShape_dwn_c = (dst_dwn_c * xht_eff)
gapCttShape_dwn_c = (gap_dwn_c * xht_eff)
innCttShape_dwn_c = (inn_dwn_c * xht_eff)
if showCuttingShape == True:
pnt_1 = gapCttShape_upp_c , (xht_eff + ovs_eff)
pnt_2 = dstCttShape_upp_c , (xht_eff/2 + innCttShape_upp_c)
pnt_4 = gapCttShape_dwn_c , (-ovs_eff)
pnt_3 = dstCttShape_dwn_c , (xht_eff/2 - innCttShape_dwn_c)
points_list = [(pnt_4) , (pnt_3) , (pnt_2) , (pnt_1)]
#disegno
tools.drawPolyByPoints(glyph, points_list)
### UpperLeft
## punti di ancoraggio
#ext
pnt_1 = (dis_c) , (xht_eff + ovs_eff)
hnd_1 = (dis_c + ((-wdt_c/2 - tcv_eff/2 - dis_c) * sqe_eff)) , (xht_eff + ovs_eff)
hnd_2 = (-wdt_c/2 - tcv_eff/2) , ((xht_eff/2) + ((+xht_eff/2 + ovs_eff) * sqe_eff))
pnt_2 = (-wdt_c/2 - tcv_eff/2) , (xht_eff/2)
#int
pnt_3 = (-wdt_c/2 + tcv_eff/2) , (xht_eff/2)
hnd_3 = (-wdt_c/2 + tcv_eff/2) , ((xht_eff/2) + ((xht_eff/2 + ovs_eff - tch_c) * sqi_eff))
hnd_4 = ((-wdt_c/2 + tcv_eff/2) * sqi_eff) , (xht_eff - tch_c + ovs_eff)
pnt_4 = 0 , (xht_eff - tch_c + ovs_eff)
# Disegno
tools.genericQuarter(glyph,
(pnt_1),
(hnd_1), (hnd_2), (pnt_2),
(pnt_3),
(hnd_3), (hnd_4), (pnt_4))
### BottomLeft
## punti di ancoraggio
#ext
pnt_1 = (-wdt_c/2 - tcv_eff/2) , (xht_eff/2)
hnd_1 = (-wdt_c/2 - tcv_eff/2) , ((xht_eff/2) + ((-xht_eff/2 - ovs_eff) * sqe_eff))
hnd_2 = ((dis_c) + ((-wdt_c/2 - tcv_eff/2 - dis_c) * sqe_eff)) , (-ovs_eff)
pnt_2 = (dis_c) , (-ovs_eff)
#int
pnt_3 = 0 , (tch_c - ovs_eff)
hnd_3 = (((-wdt_c/2 + tcv_eff/2) * sqi_eff)) , (tch_c - ovs_eff)
hnd_4 = (-wdt_c/2 + tcv_eff/2) , ((xht_eff/2) + ((-xht_eff/2 - ovs_eff + tch_c) * sqi_eff))
pnt_4 = (-wdt_c/2 + tcv_eff/2) , (xht_eff/2)
# Disegno
tools.genericQuarter(glyph,
(pnt_1),
(hnd_1), (hnd_2), (pnt_2),
(pnt_3),
(hnd_3), (hnd_4), (pnt_4))
### BottomRight
## punti di ancoraggio
#ext
pnt_1 = (dis_c) , (-ovs_eff)
hnd_1 = (dis_c + ((wdt_c/2 + tcv_effRgt_c/2 - dis_c) * sqe_eff)) , (-ovs_eff)
hnd_2 = (wdt_c/2 + tcv_effRgt_c/2 + x_inc_dwn_c) , ((xht_eff/2) + ((-xht_eff/2 - ovs_eff) * sqe_eff))
pnt_2 = (wdt_c/2 + tcv_effRgt_c/2 + x_inc_dwn_c) , (xht_eff/2 - y_inc_dwn_c)
#int
pnt_3 = (wdt_c/2 - tcv_effRgt_c/2 + x_inc_dwn_c) , (xht_eff/2 - y_inc_dwn_c)
hnd_3 = (wdt_c/2 - tcv_effRgt_c/2 + x_inc_dwn_c) , ((xht_eff/2) + ((-xht_eff/2 - ovs_eff + tch_c) * sqi_eff))
hnd_4 = (((wdt_c/2 - tcv_effRgt_c/2) * sqi_eff)) , (+tch_c - ovs_eff)
pnt_4 = 0 , (tch_c - ovs_eff)
if cut == True:
cutUp1 = (gapCttShape_dwn_c) , (- ovs_eff)
cutUp2 = (dstCttShape_dwn_c) , (xht_eff/2 - innCttShape_dwn_c)
interUpExt = bezTool.calc_int_bez ( [cutUp1,cutUp2,cutUp1,cutUp2] ,[pnt_1,hnd_1,hnd_2,pnt_2] )
interUpInt = bezTool.calc_int_bez ( [cutUp1,cutUp2,cutUp1,cutUp2] ,[pnt_3,hnd_3,hnd_4,pnt_4] )
#interUpExt = (dis_m) , (xht_eff)
#interUpInt = (-wdtSpn_dx_m/2 + tsv_eff/2)+wdtSpn_dx_m , 0
cExt = splitCubic (pnt_1,hnd_1,hnd_2,pnt_2,interUpExt[0],False)
cInt = splitCubic (pnt_3,hnd_3,hnd_4,pnt_4,interUpInt[0],False)
#ext
pnt_1 = ((cExt [0])[0])
pnt_2 = ((cExt [0])[3])
hnd_1 = ((cExt [0])[1])
hnd_2 = ((cExt [0])[2])
#int
pnt_3 = ((cInt [1])[0])
pnt_4 = ((cInt [1])[3])
hnd_3 = ((cInt [1])[1])
hnd_4 = ((cInt [1])[2])
else:
pass
# Disegno
tools.genericQuarter(glyph,
(pnt_1),
(hnd_1), (hnd_2), (pnt_2),
(pnt_3),
(hnd_3), (hnd_4), (pnt_4))
### UpperRight
## punti di ancoraggio
#ext
pnt_1 = (wdt_c/2 + tcv_effRgt_c/2 + x_inc_upp_c) , (xht_eff/2 + y_inc_upp_c)
hnd_1 = (wdt_c/2 + tcv_effRgt_c/2 + x_inc_upp_c) , ((xht_eff/2) + ((xht_eff/2 + ovs_eff) * sqe_eff))
hnd_2 = ((dis_c) + ((wdt_c/2 + tcv_effRgt_c/2 - dis_c) * sqe_eff)) , ( xht_eff + ovs_eff)
pnt_2 = (dis_c) , (xht_eff + ovs_eff)
#int
pnt_3 = 0 , (xht_eff - tch_c + ovs_eff)
hnd_3 = (((wdt_c/2 - tcv_effRgt_c/2) * sqi_eff)) , (xht_eff - tch_c + ovs_eff)
hnd_4 = (wdt_c/2 - tcv_effRgt_c/2 + x_inc_upp_c) , ((xht_eff/2) + ((xht_eff/2 + ovs_eff - tch_c) * sqi_eff))
pnt_4 = (wdt_c/2 - tcv_effRgt_c/2 + x_inc_upp_c) , (xht_eff/2 + y_inc_upp_c)
if cut == True:
cutUp1 = (gapCttShape_upp_c) , (xht_eff + ovs_eff)
cutUp2 = (dstCttShape_upp_c) , (xht_eff/2 + innCttShape_upp_c)
interUpExt = bezTool.calc_int_bez ( [cutUp1,cutUp2,cutUp1,cutUp2] ,[pnt_1,hnd_1,hnd_2,pnt_2] )
interUpInt = bezTool.calc_int_bez ( [cutUp1,cutUp2,cutUp1,cutUp2] ,[pnt_3,hnd_3,hnd_4,pnt_4] )
#interUpExt = (dis_m) , (xht_eff)
#interUpInt = (-wdtSpn_dx_m/2 + tsv_eff/2)+wdtSpn_dx_m , 0
cExt = splitCubic (pnt_1,hnd_1,hnd_2,pnt_2,interUpExt[0],False)
cInt = splitCubic (pnt_3,hnd_3,hnd_4,pnt_4,interUpInt[0],False)
#ext
pnt_1 = ((cExt [1])[0])
pnt_2 = ((cExt [1])[3])
hnd_1 = ((cExt [1])[1])
hnd_2 = ((cExt [1])[2])
#int
pnt_3 = ((cInt [0])[0])
pnt_4 = ((cInt [0])[3])
hnd_3 = ((cInt [0])[1])
hnd_4 = ((cInt [0])[2])
else:
pass
# Disegno
tools.genericQuarter(glyph,
(pnt_1),
(hnd_1), (hnd_2), (pnt_2),
(pnt_3),
(hnd_3), (hnd_4), (pnt_4))
glyph.leftMargin = mrgCrv_eff
glyph.rightMargin = mrgCrv_eff
return glyph
def drawing_q():
# Calling glyph
font = CurrentFont ()
glyph = font['q']
glyph.clear()
## Variabili locali [p]
# Larghezza
wdtLft_q = (2 * exp_eff / (nor_eff + 1)) * xht_eff
wdtRgt_q = (exp_eff * nor_eff) * xht_eff
# Innesti
x_inc_upp_q = (raccordoUpp_eff)
y_inc_upp_q = -(raccordoUpp_eff * 2 / inn_eff)
x_inc_dwn_q = (raccordoDwn_eff)
y_inc_dwn_q = -(raccordoDwn_eff * 2 / inn_eff)
# Squadrature specifiche sqe/sqi
delta_sqe_nor_q = tools.lin(nor_nom,1,0,0.75,0.3*(1-gsq_nom))
sqeRgt_q = sqe_eff + delta_sqe_nor_q
sqeLft_q = sqe_eff - delta_sqe_nor_q
delta_sqi_nor_q = tools.lin(nor_nom,1,0,0.75,0.3*(1-gsq_nom))
sqiRgt_q = sqi_eff + delta_sqi_nor_q
sqiLft_q = sqi_eff - delta_sqi_nor_q
# correzioni ottiche sqe
optSqe_upperLeft = 1# tools.lin(sqe_eff,1,1,0.54,1.3)
optSqe_bottomLeft = 1# tools.lin(sqe_eff,1,1,0.54,1.35)
optSqe_upperRight = 1# tools.lin(sqe_eff,1,1,0.54,1)
optSqe_bottomRight = 1# optSqe_upperRight
# correzioni ottiche sqi
optSqi_upperLeft = 1# tools.lin(sqi_eff,1,1,0.54,2.18)
optSqi_bottomLeft = 1# optSqe_upperLeft
optSqi_upperRight = 1# tools.lin(sqi_eff,1,1,0.54,1)
optSqi_bottomRight = 1# tools.lin(sqi_eff,1,1,0.54,1.225)
# Monilineatià (per neutralizzare la monolinearità a valori alti)
mon_q = tools.lin(mon_eff,1,1,0.01,0.2)
# Monilineatià 2 (relazione fra punto medio esterno sinistro e monolinearità
mon_q2 = tools.lin(mon_q,1,mon_q/2,0.01,mon_q)
# Disallineamento orizzontale p ƒ(wgt,mon,exp)
delta_dis_q_wgt = tools.lin(wgt_eff,0.1,0,0.45,0.04)
delta_dis_q_mon = tools.lin(mon_eff,0.01,0,1,0.02)
dis_q = (delta_dis_q_wgt + delta_dis_q_mon) * xht_eff
# Spessore curve orizzontali
tch_q = tcv_eff * mon_q
# Rientro punto medio esterno sinistro
rtr_extLft_q = mon_q2 * tsv_eff
### UpperLeft
## punti di ancoraggio
#ext
pnt_1 = -(dis_q) , (xht_eff + ovs_eff)
hnd_1 = -((-wdtLft_q/2 - tcv_eff/2 + rtr_extLft_q + dis_q)*sqeLft_q * optSqe_upperLeft) , (xht_eff + ovs_eff)
hnd_2 = -(-wdtLft_q/2 + tcv_eff/2 - rtr_extLft_q - x_inc_upp_q) , ((xht_eff/2) + ((xht_eff/2+ovs_eff)*sqeLft_q))
pnt_2 = -(-wdtLft_q/2 + tcv_eff/2 - rtr_extLft_q - x_inc_upp_q) , (xht_eff/2 + y_inc_upp_q)
#int
pnt_3 = -(-wdtLft_q/2 + tcv_eff/2 - x_inc_upp_q) , (xht_eff/2 + y_inc_upp_q)
hnd_3 = -(-wdtLft_q/2 + tcv_eff/2 - x_inc_upp_q) , ((xht_eff/2) + (xht_eff/2 - ovs_eff - tch_q) * sqiLft_q)
hnd_4 = -((-wdtLft_q/2 + tcv_eff/2) * sqiLft_q * optSqi_upperLeft) , (xht_eff + ovs_eff - tch_q)
pnt_4 = 0 , (xht_eff + ovs_eff - tch_q)
### Cut
# Punti di ancoraggio
interUpExt = -(-wdtLft_q/2 - tsv_eff/2) , xht_eff
interUpInt = -(-wdtLft_q/2 + tsv_eff/2) , -dsc_eff
cExt = splitCubic (pnt_1,hnd_1,hnd_2,pnt_2,interUpExt[0],False)
cInt = splitCubic (pnt_3,hnd_3,hnd_4,pnt_4,interUpInt[0],False)
#ext
pnt_1 = ((cExt [0])[0])
pnt_2 = ((cExt [0])[3])
hnd_1 = ((cExt [0])[1])
hnd_2 = ((cExt [0])[2])
#int
pnt_3 = ((cInt [1])[0])
pnt_4 = ((cInt [1])[3])
hnd_3 = ((cInt [1])[1])
hnd_4 = ((cInt [1])[2])
# Disegno
tools.genericQuarter(glyph,
(pnt_1),
(hnd_1), (hnd_2), (pnt_2),
(pnt_3),
(hnd_3), (hnd_4), (pnt_4))
### StemLeft
## punti di ancoraggio
pnt_1 = -(-wdtLft_q/2 + tsv_eff/2 - dstSpr_eff - gapSpr_eff) , xht_eff
pnt_2 = -(-wdtLft_q/2 - tsv_eff/2) , xht_eff
pnt_3 = -(-wdtLft_q/2 - tsv_eff/2) , -dsc_eff
pnt_4 = -(-wdtLft_q/2 + tsv_eff/2) , -dsc_eff
pnt_5 = -(-wdtLft_q/2 + tsv_eff/2) , (xht_eff - innSpr_eff)
pnt_6 = -(-wdtLft_q/2 + tsv_eff/2 - dstSpr_eff) , (xht_eff - innSpr_eff)
points_list = [(pnt_1) , (pnt_2) , (pnt_3) , (pnt_4) , (pnt_5) , (pnt_6)]
#disegno
tools.drawPolyByPoints(glyph, points_list)
### BottomLeft
## punti di ancoraggio
#ext
pnt_1 = -(-wdtLft_q/2 + tcv_eff/2 - rtr_extLft_q - x_inc_dwn_q) , (xht_eff/2 - y_inc_dwn_q)
hnd_1 = -(-wdtLft_q/2 + tcv_eff/2 - rtr_extLft_q - x_inc_dwn_q) , ((xht_eff/2) + ((-xht_eff/2-ovs_eff) * sqeLft_q))
hnd_2 = -((-wdtLft_q/2 - tcv_eff/2 + rtr_extLft_q + dis_q) * sqeLft_q * optSqe_bottomLeft) , (-ovs_eff) #(dis_q) +
pnt_2 = -(dis_q) , (-ovs_eff)
#int
pnt_3 = 0 , (tch_q - ovs_eff)
hnd_3 = -((-wdtLft_q/2 + tcv_eff/2) * sqiLft_q * optSqi_bottomLeft) , (tch_q - ovs_eff)
hnd_4 = -(-wdtLft_q/2 + tcv_eff/2 - x_inc_dwn_q) , ((xht_eff/2) + ((-xht_eff/2 + ovs_eff + tch_q) * sqiLft_q))
pnt_4 = -(-wdtLft_q/2 + tcv_eff/2 - x_inc_dwn_q) , (xht_eff/2 - y_inc_dwn_q)
### cut
# Punti di ancoraggio
interUpExt = -(-wdtLft_q/2 + tsv_eff/2) , xht_eff
interUpInt = -(-wdtLft_q/2 + tsv_eff/2) , -dsc_eff
cExt = splitCubic (pnt_1,hnd_1,hnd_2,pnt_2,interUpExt[0],False)
cInt = splitCubic (pnt_3,hnd_3,hnd_4,pnt_4,interUpInt[0],False)
#ext
pnt_1 = ((cExt [1])[0])
pnt_2 = ((cExt [1])[3])
hnd_1 = ((cExt [1])[1])
hnd_2 = ((cExt [1])[2])
#int
pnt_3 = ((cInt [0])[0])
pnt_4 = ((cInt [0])[3])
hnd_3 = ((cInt [0])[1])
hnd_4 = ((cInt [0])[2])
# Disegno
tools.genericQuarter(glyph,
(pnt_1),
(hnd_1), (hnd_2), (pnt_2),
(pnt_3),
(hnd_3), (hnd_4), (pnt_4))
### BottomRight
## punti di ancoraggio
#ext
pnt_1 = -(dis_q) , (-ovs_eff)
hnd_1 = -((wdtRgt_q/2 + tcv_eff/2 - dis_q) * sqeRgt_q * optSqe_bottomRight) , (-ovs_eff)
hnd_2 = -(wdtRgt_q/2 + tcv_eff/2) , ((xht_eff/2) + (-xht_eff/2 - ovs_eff) *sqeRgt_q)
pnt_2 = -(wdtRgt_q/2 + tcv_eff/2) , (xht_eff/2)
#int
pnt_3 = -(wdtRgt_q/2 - tcv_eff/2) , (xht_eff/2)
hnd_3 = -(wdtRgt_q/2 - tcv_eff/2) , ((xht_eff/2) + (-xht_eff/2 + ovs_eff + tch_q) *sqiRgt_q)
hnd_4 = -((wdtRgt_q/2 - tcv_eff/2 - dis_q) * sqiRgt_q * optSqi_bottomRight) , (tch_q - ovs_eff)
pnt_4 = 0 , (tch_q - ovs_eff)
# Disegno
tools.genericQuarter(glyph,
(pnt_1),
(hnd_1), (hnd_2), (pnt_2),
(pnt_3),
(hnd_3), (hnd_4), (pnt_4))
### UpperRight
## punti di ancoraggio
#ext
pnt_1 = -(wdtRgt_q/2 + tcv_eff/2) , (xht_eff/2)
hnd_1 = -(wdtRgt_q/2 + tcv_eff/2) , ((xht_eff/2) + (xht_eff/2 - ovs_eff) * sqeRgt_q )
hnd_2 = -((wdtRgt_q/2 + tcv_eff/2 - dis_q) * sqeRgt_q * optSqe_upperRight) , (xht_eff + ovs_eff) #(dis_q) +
pnt_2 = -(dis_q) , (xht_eff + ovs_eff)
#int
pnt_3 = 0 , (xht_eff + ovs_eff - tch_q)
hnd_3 = -((wdtRgt_q/2 - tcv_eff/2 - dis_q) * sqiRgt_q * optSqi_upperRight) , (xht_eff + ovs_eff - tch_q)
hnd_4 = -(wdtRgt_q/2 - tcv_eff/2) , ((xht_eff/2) + (xht_eff/2 - ovs_eff - tch_q) * sqiRgt_q)
pnt_4 = -(wdtRgt_q/2 - tcv_eff/2) , (xht_eff/2)
# Disegno
tools.genericQuarter(glyph,
(pnt_1),
(hnd_1), (hnd_2), (pnt_2),
(pnt_3),
(hnd_3), (hnd_4), (pnt_4))
glyph.leftMargin = mrgCrv_eff
glyph.rightMargin = mrgStm_eff
return glyph
pnt_1 = (dis_m) , (xht_eff+ovs_eff)
hnd_1 = (dis_m + ((-wdtSpn_sx_m/2 - tcv_eff/2 + rtr_extLft_m) * sqe_eff * opt_sqe_lft_m)) , (xht_eff + ovs_eff)
hnd_2 = (-wdtSpn_sx_m/2 + tsv_eff/2 - rtr_extLft_m - x_inc_upp_m) , ((xht_eff/2) + ((xht_eff/2 + ovs_eff) * sqe_eff))
pnt_2 = (-wdtSpn_sx_m/2 + tsv_eff/2 - rtr_extLft_m - x_inc_upp_m) , (xht_eff/2 + y_inc_upp_m)
#int
pnt_3 = (-wdtSpn_sx_m/2 + tsv_eff/2 - x_inc_upp_m) , (xht_eff/2 + y_inc_upp_m)
hnd_3 = (-wdtSpn_sx_m/2+tsv_eff/2 - x_inc_upp_m) , ((xht_eff/2) + ((xht_eff/2 + ovs_eff - tch_m) * sqi_eff))
hnd_4 = ((-wdtSpn_sx_m/2+tcv_eff/2) * sqi_eff * opt_sqi_lft_m) , (xht_eff + ovs_eff - tch_m)
pnt_4 = 0 , (xht_eff + ovs_eff - tch_m)
### cut
# Punti di ancoraggio
interUpExt = (-wdtSpn_sx_m/2 - tsv_eff/2) , (xht_eff)
interUpInt = (-wdtSpn_sx_m/2 + tsv_eff/2) , 0
cExt = splitCubic (pnt_1,hnd_1,hnd_2,pnt_2,interUpExt[0],False)
cInt = splitCubic (pnt_3,hnd_3,hnd_4,pnt_4,interUpInt[0],False)
#ext
pnt_1 = ((cExt [0])[0])
pnt_2 = ((cExt [0])[3])
hnd_1 = ((cExt [0])[1])
hnd_2 = ((cExt [0])[2])
#int
pnt_3 = ((cInt [1])[0])
pnt_4 = ((cInt [1])[3])
hnd_3 = ((cInt [1])[1])
hnd_4 = ((cInt [1])[2])
