def run(self):
'''Fonction executee quand l'utilisateur clique sur "Run".'''
self.stopped = False
# Creation de l'echantillon en testant la validite des parametres
# fournis par l'utilisateur
try:
rs = RockSample(self.L.get_val(), self.C.get_val(),
self.leq0.get_val(), self.Rl.get_val(),
self.A0.get_val(), self.Ka.get_val(),
self.E0.get_val(), self.Ke.get_val(),
self.F0cr.get_val(), self.D.get_val())
#rs.debug = True
print(rs)
cpr = Compression(rs, self.F0x.get_val(), self.Kbc.get_val(),
self.d0.get_val(), self.delt_d.get_val(),
self.max_comp.get_val())
delta_comp_rate = self.delta_comp.get_val()
except:
# si une erreur dans les parametres est detectee, soulever
# l'erreur pour interrompre le programme
raise
def draw_sample():
"fonction d'affichage de l'echantillon"
DisplayRS(rs, scale = self.scale.get_val(), d = cpr.d)
iteration = 0
dFy = DisplayCurve(parent=self, xlegend="\u03B5(%)", ylegend="Fy",
yscale = 10000, ymax = 0.05)
cpr.d += cpr.delt_d
strain = cpr.d / rs.h0 * 100
comp_rate = rs.comp_count / rs.nsprings * 100
comp_rate_next_display = 0
first_compacted_displayed = False
# Commencer la compression
while comp_rate < cpr.max_comp:
if self.stopped:
print("Stopped.")
return
iteration += 1
cpr.solve()
test_comp_count = rs.comp_count
comp_rate = rs.comp_count / rs.nsprings * 100
# Affichage
dFy.add_point(strain, cpr.Fy)
if not first_compacted_displayed and comp_rate > 0.:
threading.Thread(target=draw_sample).start()
first_compacted_displayed = True
time.sleep(2)
if comp_rate >= comp_rate_next_display:
threading.Thread(target=draw_sample).start()
comp_rate_next_display += delta_comp_rate
time.sleep(2)
print("\nIteration %5d: " % iteration)
print("\tCompaction rate:", comp_rate)
# Incrementer le deplacement si aucun ressort n'a ete compacte
if cpr.rs.comp_count == test_comp_count:
cpr.d += cpr.delt_d
strain = cpr.d / rs.h0 * 100
print("\tStrain: %f" % strain)
threading.Thread(target=draw_sample).start()
time.sleep(2)
print("Done.")
dFy = DisplayCurve(xlegend="\u03B5(%)", ylegend="Fy",
yscale = 10000, ymax = 0.05)
cpr.d += cpr.delt_d
strain = cpr.d / rs.h0 * 100
comp_rate = rs.comp_count / rs.nsprings * 100
comp_rate_next_display = 0
first_compacted_displayed = False
# Commencer la compression
while comp_rate < cpr.max_comp:
iteration += 1
test_comp_count = rs.comp_count
cpr.solve()
comp_rate = rs.comp_count / rs.nsprings * 100
# Affichage
dFy.add_point(strain, cpr.Fy)
if not first_compacted_displayed and comp_rate > 0.:
threading.Thread(target=draw_sample).start()
first_compacted_displayed = True
time.sleep(2)
if comp_rate >= comp_rate_next_display:
threading.Thread(target=draw_sample).start()
comp_rate_next_display += delta_comp_rate
time.sleep(2)
print("\nIteration %5d: " % iteration)
print("\tCompaction rate:", comp_rate)
iteration = 0
dFy = DisplayCurve(xlegend="\u03B5(%)", ylegend="Fy", yscale=10000, ymax=0.05)
cpr.d += cpr.delt_d
strain = cpr.d / rs.h0 * 100
comp_rate = rs.comp_count / rs.nsprings * 100
comp_rate_next_display = 0
first_compacted_displayed = False
# Commencer la compression
while comp_rate < cpr.max_comp:
iteration += 1
test_comp_count = rs.comp_count
cpr.solve()
comp_rate = rs.comp_count / rs.nsprings * 100
# Affichage
dFy.add_point(strain, cpr.Fy)
if not first_compacted_displayed and comp_rate > 0.:
threading.Thread(target=draw_sample).start()
first_compacted_displayed = True
time.sleep(2)
if comp_rate >= comp_rate_next_display:
threading.Thread(target=draw_sample).start()
comp_rate_next_display += delta_comp_rate
time.sleep(2)
print("\nIteration %5d: " % iteration)
print("\tCompaction rate:", comp_rate)
def run(self):
'''Fonction executee quand l'utilisateur clique sur "Run".'''
self.stopped = False
# Creation de l'echantillon en testant la validite des parametres
# fournis par l'utilisateur
try:
rs = RockSample(self.L.get_val(), self.C.get_val(),
self.leq0.get_val(), self.Rl.get_val(),
self.A0.get_val(), self.Ka.get_val(),
self.E0.get_val(), self.Ke.get_val(),
self.F0cr.get_val(), self.D.get_val())
#rs.debug = True
print(rs)
cpr = Compression(rs, self.F0x.get_val(), self.Kbc.get_val(),
self.d0.get_val(), self.delt_d.get_val(),
self.max_comp.get_val())
delta_comp_rate = self.delta_comp.get_val()
except:
# si une erreur dans les parametres est detectee, soulever
# l'erreur pour interrompre le programme
raise
def draw_sample():
"fonction d'affichage de l'echantillon"
DisplayRS(rs, scale=self.scale.get_val(), d=cpr.d)
iteration = 0
dFy = DisplayCurve(parent=self,
xlegend="\u03B5(%)",
ylegend="Fy",
yscale=10000,
ymax=0.05)
cpr.d += cpr.delt_d
strain = cpr.d / rs.h0 * 100
comp_rate = rs.comp_count / rs.nsprings * 100
comp_rate_next_display = 0
first_compacted_displayed = False
# Commencer la compression
while comp_rate < cpr.max_comp:
if self.stopped:
print("Stopped.")
return
iteration += 1
cpr.solve()
test_comp_count = rs.comp_count
comp_rate = rs.comp_count / rs.nsprings * 100
# Affichage
dFy.add_point(strain, cpr.Fy)
if not first_compacted_displayed and comp_rate > 0.:
threading.Thread(target=draw_sample).start()
first_compacted_displayed = True
time.sleep(2)
if comp_rate >= comp_rate_next_display:
threading.Thread(target=draw_sample).start()
comp_rate_next_display += delta_comp_rate
time.sleep(2)
print("\nIteration %5d: " % iteration)
print("\tCompaction rate:", comp_rate)
# Incrementer le deplacement si aucun ressort n'a ete compacte
if cpr.rs.comp_count == test_comp_count:
cpr.d += cpr.delt_d
strain = cpr.d / rs.h0 * 100
print("\tStrain: %f" % strain)
threading.Thread(target=draw_sample).start()
time.sleep(2)
print("Done.")