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def tetra(self):
self.ttt = Toplevel(self)
self.ttt.title('Entité Gammique : Tétracorde')
self.ttt.geometry('600x666')
fonttt = Font(size=6)
frtet = Frame(self.ttt,width=30,height=1,bg='green')
frtet.pack(side=RIGHT)
bttet1 = Button(frtet,text ='Tétras',height=1, width=10,bg ='orange', command= lambda: ttractuac(1))
bttet1.pack()
bttet2 = Button(frtet,text ='Utiles',height=1, width=10,bg ='orange', command= lambda: ttractuac(2))
bttet2.pack()
bttet3 = Button(frtet,text ='Clones',height=1, width=10,bg ='orange', command= lambda: ttractuac(3))
bttet3.pack()
frtet_sup = Frame(self.ttt,width=15,height=1)
frtet_sup.pack(side=RIGHT)
bttet_sup1 = Button(frtet_sup,text ='Sup',height=1, width=10,bg ='lightgrey').pack()
frtet_inf = Frame(self.ttt,width=15,height=1)
frtet_inf.pack(side=RIGHT)
bttet_inf1 = Button(frtet_inf,text ='Inf',height=1, width=10,bg ='lightgrey').pack()
frtet_ = Frame(self.ttt,width=30,height=1)
frtet_.pack(side=BOTTOM)
bttet_ = Button(frtet_,text ='Quitter',height=1, width=15,bg ='lightgrey', command= self.ttt.destroy)
bttet_.pack()
tetcan = Canvas(self.ttt,bg='ivory', height=500,width=300)
tetcan.place(x=30,y=30, anchor='nw')
tetcan.create_line(50, 30, 250, 30, fill ='blue')
txlgh = 50 ; txldh = 250 ; tylgh = tyldh = 60 # Axe horizontal
tylgv = 50 ; tyldv = 460 ; txlgv = txldv = 30 # Axe vertical
for i in range(66):
tetcan.create_line(txlgh, tylgh+i*6, txldh, tyldh+i*6, fill ='lightgrey')
for i in range(13):
tetcan.create_line(txlgv+i*20, tylgv, txldv+i*20, tyldv, fill ='lightgrey')
# Le pas : (horizontal = *20)(vertical = *6)
r1 = 3 ; x1 = 150 ; y1 = 15
tetcan.create_oval(x1-r1,y1-r1,x1+r1,y1+r1,fill='white')
r2 = 2 ; x2 = 150 ; y2 = 24
tetcan.create_oval(x2-r2,y2-r2,x2+r2,y2+r2,fill='white')
lbtet = Label(self.ttt, text ="Tétra's", font ='bold',fg = 'blue').pack()
tetcan.create_text(66,15,text='Système tétracordique',fill='black')
def ttractuac(t):
tetcan.delete(ALL)
tetcan.create_line(50, 30, 250, 30, fill ='blue')
for i in range(66):
tetcan.create_line(txlgh, tylgh+i*6, txldh, tyldh+i*6, fill ='lightgrey')
for i in range(13):
tetcan.create_line(txlgv+i*20, tylgv, txldv+i*20, tyldv, fill ='lightgrey')
xh= 30; yh= 60 # Départ Axe horizontal
if t == 0 : pass
elif t == 1 : # Bouton tétras (tgam_tet = [])
# xh= 30; yh= 60 # Départ Axe horizontal(x)/vertical(y)
tetcan.create_text(150,15,text='Système tétracordique ordonné',fill='grey')
tv = 0
for tt in tgam_tet:
th = td = 0
tt_inf = tt[0]
tt_sup = tt[1]
td = 13 - (len(tt_inf + tt_sup))
for tti in tt_inf:
if tti == 1:
tetcan.create_oval(xh+th*20-r1,yh+tv*6-r1,xh+th*20+r1,yh+tv*6+r1,fill='red')
th += 1
else:
tetcan.create_oval(xh+th*20-r2,yh+tv*6-r2,xh+th*20+r2,yh+tv*6+r2,fill='yellow')
th += 1
if td > 0:
th1 = th
for td_ in range(td):
tetcan.create_oval(xh+th1*20-r1,yh+tv*6-r1,xh+th1*20+r1,yh+tv*6+r1,fill='white')
th1 += 1
th = th1
td = 0
for tts in tt_sup:
if tts == 1:
tetcan.create_oval(xh+th*20-r1,yh+tv*6-r1,xh+th*20+r1,yh+tv*6+r1,fill='blue')
th += 1
else:
tetcan.create_oval(xh+th*20-r2,yh+tv*6-r2,xh+th*20+r2,yh+tv*6+r2,fill='yellow')
th += 1
tv += 1
elif t == 2 : # Bouton utiles (tet_is:inf/sup/nom,tet_tt:ordre,tgam_util:clone)
# xh= 30; yh= 60 # Départ Axe horizontal(x)/vertical(y)
tetcan.create_text(150,15,text='Système tétracordique utilisé',fill='grey')
tu = x_01i = x_01s = 0 # x_01:Jeux de marges du texte
for tt in tgam_util: # :clone(tt)=[1, 1, 1, 1]
t_is = tet_is[tu] # :"inf/sup"/nom(tu):"L'horizontale(x)":=('Inf', '0')
t_tt = tet_tt[tu] # :ordre(tu):La verticale(y):=zéro à 66
t_ut = tt
th = 0
tis0i = tis0s = 0 # Compteurs des tétras(inf/sup)
if t_is[0] == 'Inf':
tis0i += 1
if x_01i == 1:
x10 = 7 # Marges de principe(x)
x_01i = 0
else:
x10 = 17 # Marges de principe(x)
x_01i = 1
for t in t_ut:
if t == 1:
tetcan.create_oval(xh+th*20-r1,yh+t_tt*6-r1,xh+th*20+r1,yh+t_tt*6+r1,fill='red')
else:
tetcan.create_oval(xh+th*20-r2,yh+t_tt*6-r2,xh+th*20+r2,yh+t_tt*6+r2,fill='yellow')
th += 1
tetcan.create_text(x10,yh+t_tt*6,text=t_is[1],font=fonttt,fill='red')
Button(frtet_inf,text =t_is[1],height=1, width=5,bg ='pink').pack()
elif t_is[0] == 'Sup':
tis0s += 1
if x_01s == 1:
x290 = 284 # Marges de principe(x)
x_01s = 0
else:
x290 = 292 # Marges de principe(x)
x_01s = 1
t_len = 13 - len(tt)
th += t_len
for t in t_ut:
if t == 1:
tetcan.create_oval(xh+th*20-r1,yh+t_tt*6-r1,xh+th*20+r1,yh+t_tt*6+r1,fill='blue')
else:
tetcan.create_oval(xh+th*20-r2,yh+t_tt*6-r2,xh+th*20+r2,yh+t_tt*6+r2,fill='yellow')
th += 1
tetcan.create_text(x290,yh+t_tt*6,text=t_is[1],font=fonttt,fill='blue')
Button(frtet_sup,text =t_is[1],height=1, width=5,bg ='lightblue').pack()
tu += 1
elif t == 3 : # Bouton clones (ts_simil = [])
# xh= 30; yh= 60 # Départ Axe horizontal(x)/vertical(y)
tetcan.create_text(150,15,text='Système tétracordique cloné',fill='grey')
print(t)
# La gamme en cours comme élément - système de définition tétracordique
# Développé tétra similaire diatonique: TETRA/CLONE/DIATONE
# self.gamnomscopie[]:(noms[+2])gammes - signatures(int)
# self.gammescopie[] :(valeurs[1,1,0,,,])gammes - intervalles(int)
# self.accdiese[(de 0 à +6)]: Table des altérations/str(+)
# self.accbemol[(de -1 à -6)]: Table des altérations/str(-)
# self.sel_myx[0] : Est l'indice [i] en cours, dans self.gamnomscopie[i]
# La transition modifie [1,1,0,1,1,1,0] en ([1,0,1,0,1,1],[1,0,1,0,1,1])
tginf_tra = [] ; tgsup_tra = [] # Tables transitives (inf/sup)
tgam_tet = [] # tgam_tet : Table tétra's complète
tg_tra = [0] # tg_tra[0]: Table tétra en cours
ts_simil = [] # Table des similaires
tgam_util = [] # Tables des utilités
tginf_nbr = tgsup_nbr = 0
t_gam = self.gammescopie[self.sel_myx[0]]
tgam_inf = t_gam[:4]
tgam_sup = t_gam[4:]
for tg_i in tgam_inf:
if tg_i > 0:
for tg_ii in range(tg_i+1):
if tg_ii == 0 :
tginf_tra.append(1)
tginf_nbr +=1
elif tginf_nbr < 4:
tginf_tra.append(0)
else:
tginf_tra.append(1)
tginf_nbr +=1
for tg_s in tgam_sup:
if tg_s > 0:
for tg_ss in range(tg_s+1):
if tg_ss == 0 :
tgsup_tra.append(1)
tgsup_nbr +=1
elif tgsup_nbr < 4:
tgsup_tra.append(0)
if tgsup_nbr == 4:
tgsup_tra.append(1)
tgsup_nbr +=1
if tg_s == 0:
tgsup_tra.append(1)
tgsup_nbr +=1
tgsup_tra.append(1)
tgsup_nbr +=1
tg_tra[0] = tginf_tra, tgsup_tra
# Bouton tétras : L'ensemble tétracordique
t = 0
for t_ in self.gammescopie:
tinf_tra = [] ; tsup_tra = []
tinf_nbr = tsup_nbr = 0
t_tra = [0]
t +=1
t_inf = t_[:4]
t_sup = t_[4:]
for t_i in t_inf:
if t_i > 0:
for t_ii in range(t_i+1):
if t_ii == 0 :
tinf_tra.append(1)
tinf_nbr +=1
elif tinf_nbr < 4:
tinf_tra.append(0)
else:
tinf_tra.append(1)
tinf_nbr +=1
for t_s in t_sup:
if t_s > 0:
for t_ss in range(t_s+1):
if t_ss == 0 :
tsup_tra.append(1)
tsup_nbr +=1
elif tsup_nbr < 4:
tsup_tra.append(0)
if tsup_nbr == 4:
tsup_tra.append(1)
tsup_nbr +=1
if t_s == 0:
tsup_tra.append(1)
tsup_nbr +=1
tsup_tra.append(1)
tsup_nbr +=1
t_tra[0] = tinf_tra, tsup_tra
tgam_tet.append(t_tra[0]) # tgam_tet : Table tétra's complète
# Bouton clones : Les clones dans le système
tin_f = tg_tra[0][0]
tsu_p = tg_tra[0][1]
ts = ts_t = 0 # ts = Quantité de similitudes
for t_ in tgam_tet:
ts_eti = t_[0]
ts_ets = t_[1]
if tin_f == ts_eti:
tin_nom = 'Inf','Inf',self.gamnomscopie[ts_t]
ts_simil.append(tin_nom)
ts += 1
if tin_f == ts_ets:
tin_nom = 'Inf','Sup',self.gamnomscopie[ts_t]
ts_simil.append(tin_nom)
ts += 1
if tsu_p == ts_ets:
tin_nom = 'Sup','Sup',self.gamnomscopie[ts_t]
ts_simil.append(tin_nom)
ts += 1
if tsu_p == ts_eti:
tin_nom = 'Sup','Inf',self.gamnomscopie[ts_t]
ts_simil.append(tin_nom)
ts += 1
ts_t += 1
#(ts,ts_simil)
# Bouton utiles : Sans les clones de l'ensemble tétracordique
tet_is = [] ; tet_tt = []
t = t_t = 0
for t_ in tgam_tet:
ti_egal = ts_egal = 0
if t == 0:
ti_nom = 'Inf',self.gamnomscopie[t_t]
tet_is.append(ti_nom)
tet_tt.append(t_t)
tet_i = t_[0]
tgam_util.append(tet_i)
t += 1
tet_s = t_[1]
if tet_i != tet_s:
ts_nom = 'Sup',self.gamnomscopie[t_t]
tet_is.append(ts_nom)
tet_tt.append(t_t)
tgam_util.append(tet_s)
t += 1
else:
tet_i = t_[0]
tet_s = t_[1]
for t_u in tgam_util:
if t_u == tet_i:
ti_egal = 1
if t_u == tet_s:
ts_egal = 1
if ti_egal == 0:
ti_nom = 'Inf',self.gamnomscopie[t_t]
tet_is.append(ti_nom)
tet_tt.append(t_t)
tgam_util.append(tet_i)
t += 1
if ts_egal == 0:
ts_nom = 'Sup',self.gamnomscopie[t_t]
tet_is.append(ts_nom)
tet_tt.append(t_t)
tgam_util.append(tet_s)
t += 1
t_t += 1
#(t,tet_is,tet_tt,tgam_util)
t = 0
print('*') |
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