def setup_graphic_modes(self):
"""[summary]
[description]
"""
nmodes = self.parameters["nmodes"].value
tau = np.logspace(self.parameters["logtmin"].value,
self.parameters["logtmax"].value, nmodes)
J = np.zeros(nmodes)
for i in range(nmodes):
J[i] = np.power(10, self.parameters["logJ%02d" % i].value)
self.graphicmodes = self.ax.plot(tau, J)[0]
self.graphicmodes.set_marker('D')
self.graphicmodes.set_linestyle('')
self.graphicmodes.set_visible(self.view_modes)
self.graphicmodes.set_markerfacecolor('yellow')
self.graphicmodes.set_markeredgecolor('black')
self.graphicmodes.set_markeredgewidth(3)
self.graphicmodes.set_markersize(8)
self.graphicmodes.set_alpha(0.5)
self.artistmodes = DraggableModesSeries(
self.graphicmodes, DragType.special,
self.parent_dataset.parent_application, self.drag_mode)
self.plot_theory_stuff()
class BaseTheoryRetardationModesTime:
"""[summary]
[description]
"""
help_file = 'http://reptate.readthedocs.io/manual/Applications/Creep/Theory/theory.html#retardation-modes'
single_file = True
thname = TheoryRetardationModesTime.thname
citations = TheoryRetardationModesTime.citations
doi = TheoryRetardationModesTime.doi
def __init__(self, name="", parent_dataset=None, ax=None):
"""
**Constructor**
Keyword Arguments:
- name {[type]} -- [description] (default: {""})
- parent_dataset {[type]} -- [description] (default: {None})
- ax {[type]} -- [description] (default: {None})
"""
super().__init__(name, parent_dataset, ax)
self.function = self.RetardationModesTime
self.has_modes = True
self.MAX_MODES = 40
self.view_modes = True
tmin = self.parent_dataset.minpositivecol(0)
tmax = self.parent_dataset.maxcol(0)
nmodes = int(np.round(np.log10(tmax / tmin)))
self.parameters["logJini"] = Parameter(
"logJini",
-4.0,
"Log of Instantaneous Compliance",
ParameterType.real,
opt_type=OptType.opt)
self.parameters["logeta0"] = Parameter("logeta0",
0.0,
"Log of Terminal Viscosity",
ParameterType.real,
opt_type=OptType.opt)
self.parameters["logtmin"] = Parameter("logtmin",
np.log10(tmin),
"Log of time range minimum",
ParameterType.real,
opt_type=OptType.opt)
self.parameters["logtmax"] = Parameter("logtmax",
np.log10(tmax),
"Log of time range maximum",
ParameterType.real,
opt_type=OptType.opt)
self.parameters["nmodes"] = Parameter(
name="nmodes",
value=nmodes,
description="Number of Retardation modes",
type=ParameterType.integer,
opt_type=OptType.const,
display_flag=False)
# Interpolate modes from data
try:
sigma = float(
self.parent_dataset.files[0].file_parameters["stress"])
except (ValueError, KeyError):
self.Qprint("Invalid stress value")
return
tau = np.logspace(np.log10(tmin), np.log10(tmax), nmodes)
J = np.abs(
np.interp(tau, self.parent_dataset.files[0].data_table.data[:, 0],
self.parent_dataset.files[0].data_table.data[:,
1])) / sigma
for i in range(self.parameters["nmodes"].value):
self.parameters["logJ%02d" % i] = Parameter(
"logJ%02d" % i,
np.log10(J[i]),
"Log of Mode %d amplitude" % i,
ParameterType.real,
opt_type=OptType.opt)
# GRAPHIC MODES
self.graphicmodes = None
self.artistmodes = None
self.setup_graphic_modes()
def drag_mode(self, dx, dy):
"""[summary]
[description]
Arguments:
- dx {[type]} -- [description]
- dy {[type]} -- [description]
"""
nmodes = self.parameters["nmodes"].value
self.set_param_value("logtmin", dx[0])
self.set_param_value("logtmax", dx[nmodes - 1])
for i in range(nmodes):
self.set_param_value("logJ%02d" % i, dy[i])
self.do_calculate("")
self.update_parameter_table()
def update_modes(self):
"""[summary]
[description]
"""
pass
def setup_graphic_modes(self):
"""[summary]
[description]
"""
nmodes = self.parameters["nmodes"].value
tau = np.logspace(self.parameters["logtmin"].value,
self.parameters["logtmax"].value, nmodes)
J = np.zeros(nmodes)
for i in range(nmodes):
J[i] = np.power(10, self.parameters["logJ%02d" % i].value)
self.graphicmodes = self.ax.plot(tau, J)[0]
self.graphicmodes.set_marker('D')
self.graphicmodes.set_linestyle('')
self.graphicmodes.set_visible(self.view_modes)
self.graphicmodes.set_markerfacecolor('yellow')
self.graphicmodes.set_markeredgecolor('black')
self.graphicmodes.set_markeredgewidth(3)
self.graphicmodes.set_markersize(8)
self.graphicmodes.set_alpha(0.5)
self.artistmodes = DraggableModesSeries(
self.graphicmodes, DragType.special,
self.parent_dataset.parent_application, self.drag_mode)
self.plot_theory_stuff()
def destructor(self):
"""Called when the theory tab is closed
[description]
"""
self.graphicmodes_visible(False)
self.ax.lines.remove(self.graphicmodes)
def show_theory_extras(self, show=False):
"""Called when the active theory is changed
[description]
"""
if CmdBase.mode == CmdMode.GUI:
self.Qhide_theory_extras(show)
self.graphicmodes_visible(show)
def graphicmodes_visible(self, state):
"""[summary]
[description]
"""
self.view_modes = state
self.graphicmodes.set_visible(self.view_modes)
if self.view_modes:
self.artistmodes.connect()
else:
self.artistmodes.disconnect()
# self.do_calculate("")
self.parent_dataset.parent_application.update_plot()
def get_modes(self):
"""[summary]
[description]
Returns:
- [type] -- [description]
"""
nmodes = self.parameters["nmodes"].value
tau = np.logspace(self.parameters["logtmin"].value,
self.parameters["logtmax"].value, nmodes)
J = np.zeros(nmodes)
for i in range(nmodes):
J[i] = 1.0 / np.power(10, self.parameters["logJ%02d" % i].value)
return tau, J
def set_modes(self, tau, J):
"""[summary]
[description]
Arguments:
- tau {[type]} -- [description]
- J {[type]} -- [description]
"""
print("set_modes not allowed in this theory (%s)" % self.name)
def RetardationModesTime(self, f=None):
"""[summary]
[description]
Keyword Arguments:
- f {[type]} -- [description] (default: {None})
"""
ft = f.data_table
tt = self.tables[f.file_name_short]
tt.num_columns = ft.num_columns
tt.num_rows = ft.num_rows
tt.data = np.zeros((tt.num_rows, tt.num_columns))
tt.data[:, 0] = ft.data[:, 0]
try:
stress = float(f.file_parameters["stress"])
except (ValueError, KeyError):
self.Qprint("Invalid stress value")
return
nmodes = self.parameters["nmodes"].value
J0 = np.power(10, self.parameters["logJini"].value)
eta0 = np.power(10, self.parameters["logeta0"].value)
tau = np.logspace(self.parameters["logtmin"].value,
self.parameters["logtmax"].value, nmodes)
for i in range(nmodes):
if self.stop_theory_flag:
break
expT_tau = (1.0 - np.exp(-tt.data[:, 0] / tau[i]))
J = np.power(10, self.parameters["logJ%02d" % i].value)
tt.data[:, 1] += stress * J * expT_tau
tt.data[:, 1] += stress * (J0 + tt.data[:, 0] / eta0)
def plot_theory_stuff(self):
"""[summary]
[description]
"""
if not self.view_modes:
return
data_table_tmp = DataTable(self.axarr)
data_table_tmp.num_columns = 2
nmodes = self.parameters["nmodes"].value
data_table_tmp.num_rows = nmodes
data_table_tmp.data = np.zeros((nmodes, 2))
tau = np.logspace(self.parameters["logtmin"].value,
self.parameters["logtmax"].value, nmodes)
data_table_tmp.data[:, 0] = tau
for i in range(nmodes):
if self.stop_theory_flag:
break
data_table_tmp.data[i, 1] = np.power(
10, self.parameters["logJ%02d" % i].value)
view = self.parent_dataset.parent_application.current_view
try:
x, y, success = view.view_proc(data_table_tmp, None)
except TypeError as e:
print(e)
return
self.graphicmodes.set_data(x, y)
for i in range(data_table_tmp.MAX_NUM_SERIES):
for nx in range(len(self.axarr)):
self.axarr[nx].lines.remove(data_table_tmp.series[nx][i])
class BaseTheoryMaxwellModesFrequency:
"""[summary]
"""
help_file = 'http://reptate.readthedocs.io/manual/Applications/LVE/Theory/theory.html#maxwell-modes'
single_file = True
thname = TheoryMaxwellModesFrequency.thname
citations = TheoryMaxwellModesFrequency.citations
doi = TheoryMaxwellModesFrequency.doi
def __init__(self, name="", parent_dataset=None, ax=None):
"""
**Constructor**
Keyword Arguments:
- name {[type]} -- [description] (default: {""})
- parent_dataset {[type]} -- [description] (default: {None})
- ax {[type]} -- [description] (default: {None})
"""
super().__init__(name, parent_dataset, ax)
self.function = self.MaxwellModesFrequency
self.has_modes = True
self.MAX_MODES = 40
self.view_modes = True
wmin = self.parent_dataset.minpositivecol(0)
wmax = self.parent_dataset.maxcol(0)
nmodes = int(np.round(np.log10(wmax / wmin)))
self.parameters["logwmin"] = Parameter(
"logwmin",
np.log10(wmin),
"Log of frequency range minimum",
ParameterType.real,
opt_type=OptType.opt)
self.parameters["logwmax"] = Parameter(
"logwmax",
np.log10(wmax),
"Log of frequency range maximum",
ParameterType.real,
opt_type=OptType.opt)
self.parameters["nmodes"] = Parameter(
name="nmodes",
value=nmodes,
description="Number of Maxwell modes",
type=ParameterType.integer,
opt_type=OptType.const,
display_flag=False,
min_value=1)
# Interpolate modes from data
w = np.logspace(np.log10(wmin), np.log10(wmax), nmodes)
G = np.abs(
np.interp(w, self.parent_dataset.files[0].data_table.data[:, 0],
self.parent_dataset.files[0].data_table.data[:, 1]))
for i in range(self.parameters["nmodes"].value):
self.parameters["logG%02d" % i] = Parameter(
"logG%02d" % i,
np.log10(G[i]),
"Log of Mode %d amplitude" % i,
ParameterType.real,
opt_type=OptType.opt)
# GRAPHIC MODES
self.graphicmodes = []
self.artistmodes = []
self.setup_graphic_modes()
def set_param_value(self, name, value):
"""Change other parameters when nmodes is changed, else call parent function"""
if name == 'nmodes':
nmodesold = self.parameters["nmodes"].value
wminold = self.parameters["logwmin"].value
wmaxold = self.parameters["logwmax"].value
wold = np.logspace(wminold, wmaxold, nmodesold)
Gold = np.zeros(nmodesold)
for i in range(nmodesold):
Gold[i] = self.parameters["logG%02d" % i].value
del self.parameters["logG%02d" % i]
nmodesnew = int(value)
message, success = super().set_param_value("nmodes", nmodesnew)
wnew = np.logspace(wminold, wmaxold, nmodesnew)
Gnew = np.interp(wnew, wold, Gold)
for i in range(nmodesnew):
self.parameters["logG%02d" % i] = Parameter(
"logG%02d" % i,
Gnew[i],
"Log of Mode %d amplitude" % i,
ParameterType.real,
opt_type=OptType.opt)
if CmdBase.mode == CmdMode.GUI:
self.spinbox.blockSignals(True)
self.spinbox.setValue(nmodesnew)
self.spinbox.blockSignals(False)
else:
message, success = super().set_param_value(name, value)
return message, success
def drag_mode(self, dx, dy):
"""[summary]
[description]
Arguments:
- dx {[type]} -- [description]
- dy {[type]} -- [description]
"""
nmodes = self.parameters["nmodes"].value
if self.parent_dataset.parent_application.current_view.log_x:
self.set_param_value("logwmin", np.log10(dx[0]))
self.set_param_value("logwmax", np.log10(dx[nmodes - 1]))
else:
self.set_param_value("logwmin", dx[0])
self.set_param_value("logwmax", dx[nmodes - 1])
if self.parent_dataset.parent_application.current_view.log_y:
for i in range(nmodes):
self.set_param_value("logG%02d" % i, np.log10(dy[i]))
else:
for i in range(nmodes):
self.set_param_value("logG%02d" % i, dy[i])
self.do_calculate("")
self.update_parameter_table()
def update_modes(self):
"""[summary]
[description]
"""
pass
def setup_graphic_modes(self):
"""[summary]
[description]
"""
nmodes = self.parameters["nmodes"].value
w = np.logspace(self.parameters["logwmin"].value,
self.parameters["logwmax"].value, nmodes)
G = np.zeros(nmodes)
for i in range(nmodes):
G[i] = np.power(10, self.parameters["logG%02d" % i].value)
self.graphicmodes = self.ax.plot(w, G)[0]
self.graphicmodes.set_marker('D')
self.graphicmodes.set_linestyle('')
self.graphicmodes.set_visible(self.view_modes)
self.graphicmodes.set_markerfacecolor('yellow')
self.graphicmodes.set_markeredgecolor('black')
self.graphicmodes.set_markeredgewidth(3)
self.graphicmodes.set_markersize(8)
self.graphicmodes.set_alpha(0.5)
self.artistmodes = DraggableModesSeries(
self.graphicmodes, DragType.special,
self.parent_dataset.parent_application, self.drag_mode)
self.plot_theory_stuff()
def destructor(self):
"""Called when the theory tab is closed
[description]
"""
self.graphicmodes_visible(False)
self.ax.lines.remove(self.graphicmodes)
def show_theory_extras(self, show=False):
"""Called when the active theory is changed
[description]
"""
if CmdBase.mode == CmdMode.GUI:
self.Qhide_theory_extras(show)
self.graphicmodes_visible(show)
def graphicmodes_visible(self, state):
"""[summary]
[description]
"""
self.view_modes = state
self.graphicmodes.set_visible(self.view_modes)
if self.view_modes:
self.artistmodes.connect()
else:
self.artistmodes.disconnect()
# self.do_calculate("")
self.parent_dataset.parent_application.update_plot()
def get_modes(self):
"""[summary]
[description]
Returns:
- [type] -- [description]
"""
nmodes = self.parameters["nmodes"].value
freq = np.logspace(self.parameters["logwmin"].value,
self.parameters["logwmax"].value, nmodes)
tau = 1.0 / freq
G = np.zeros(nmodes)
for i in range(nmodes):
G[i] = np.power(10, self.parameters["logG%02d" % i].value)
return tau, G
def set_modes(self, tau, G):
"""[summary]
[description]
Arguments:
- tau {[type]} -- [description]
- G {[type]} -- [description]
"""
print("set_modes not allowed in this theory (%s)" % self.name)
def MaxwellModesFrequency(self, f=None):
"""[summary]
[description]
Keyword Arguments:
- f {[type]} -- [description] (default: {None})
"""
ft = f.data_table
tt = self.tables[f.file_name_short]
tt.num_columns = ft.num_columns
tt.num_rows = ft.num_rows
tt.data = np.zeros((tt.num_rows, tt.num_columns))
tt.data[:, 0] = ft.data[:, 0]
nmodes = self.parameters["nmodes"].value
freq = np.logspace(self.parameters["logwmin"].value,
self.parameters["logwmax"].value, nmodes)
tau = 1.0 / freq
for i in range(nmodes):
if self.stop_theory_flag:
break
wT = tt.data[:, 0] * tau[i]
wTsq = wT**2
G = np.power(10, self.parameters["logG%02d" % i].value)
tt.data[:, 1] += G * wTsq / (1 + wTsq)
tt.data[:, 2] += G * wT / (1 + wTsq)
def plot_theory_stuff(self):
"""[summary]
[description]
"""
# if not self.view_modes:
# return
data_table_tmp = DataTable(self.axarr)
data_table_tmp.num_columns = 3
nmodes = self.parameters["nmodes"].value
data_table_tmp.num_rows = nmodes
data_table_tmp.data = np.zeros((nmodes, 3))
freq = np.logspace(self.parameters["logwmin"].value,
self.parameters["logwmax"].value, nmodes)
data_table_tmp.data[:, 0] = freq
for i in range(nmodes):
if self.stop_theory_flag:
break
data_table_tmp.data[i, 1] = data_table_tmp.data[i, 2] = np.power(
10, self.parameters["logG%02d" % i].value)
view = self.parent_dataset.parent_application.current_view
try:
x, y, success = view.view_proc(data_table_tmp, None)
except TypeError as e:
print(e)
return
self.graphicmodes.set_data(x, y)
for i in range(data_table_tmp.MAX_NUM_SERIES):
for nx in range(len(self.axarr)):
self.axarr[nx].lines.remove(data_table_tmp.series[nx][i])
class BaseTheoryKWWModesFrequency:
"""[summary]
"""
help_file = 'http://reptate.readthedocs.io/manual/Applications/Dielectric/Theory/theory.html#kolhrauch-williams-watts-kww-modes'
single_file = True
thname = TheoryKWWModesFrequency.thname
citations = TheoryKWWModesFrequency.citations
doi = TheoryKWWModesFrequency.doi
def __init__(self, name="", parent_dataset=None, ax=None):
"""
**Constructor**
Keyword Arguments:
- name {[type]} -- [description] (default: {""})
- parent_dataset {[type]} -- [description] (default: {None})
- ax {[type]} -- [description] (default: {None})
"""
super().__init__(name, parent_dataset, ax)
self.function = self.KWWModesFrequency
self.has_modes = False
self.MAX_MODES = 40
self.view_modes = True
wmin = self.parent_dataset.minpositivecol(0)
wmax = self.parent_dataset.maxcol(0)
nmodes = int(np.round(np.log10(wmax / wmin)))
self.parameters["einf"] = Parameter(
"einf",
0.0,
"Unrelaxed permittivity",
ParameterType.real,
opt_type=OptType.opt,
bracketed=True,
min_value=0)
self.parameters["beta"] = Parameter(
"beta",
0.5,
'Stretched exponential parameter',
ParameterType.real,
opt_type=OptType.opt,
bracketed=True,
min_value=0.1,
max_value=2.0)
self.parameters["logwmin"] = Parameter(
"logwmin",
np.log10(wmin),
"Log of frequency range minimum",
ParameterType.real,
opt_type=OptType.opt)
self.parameters["logwmax"] = Parameter(
"logwmax",
np.log10(wmax),
"Log of frequency range maximum",
ParameterType.real,
opt_type=OptType.opt)
self.parameters["nmodes"] = Parameter(
name="nmodes",
value=nmodes,
description="Number of KWW modes",
type=ParameterType.integer,
opt_type=OptType.const,
display_flag=False)
# Interpolate modes from data
w = np.logspace(np.log10(wmin), np.log10(wmax), nmodes)
eps = np.abs(
np.interp(w, self.parent_dataset.files[0].data_table.data[:, 0],
self.parent_dataset.files[0].data_table.data[:, 1]))
for i in range(self.parameters["nmodes"].value):
self.parameters["logDe%02d" % i] = Parameter(
"logDe%02d" % i,
np.log10(eps[i]),
"Log of Mode %d amplitude" % i,
ParameterType.real,
opt_type=OptType.opt)
# GRAPHIC MODES
self.graphicmodes = []
self.artistmodes = []
self.setup_graphic_modes()
def drag_mode(self, dx, dy):
"""[summary]
[description]
Arguments:
- dx {[type]} -- [description]
- dy {[type]} -- [description]
"""
nmodes = self.parameters["nmodes"].value
if self.parent_dataset.parent_application.current_view.log_x:
self.set_param_value("logwmin", np.log10(dx[0]))
self.set_param_value("logwmax", np.log10(dx[nmodes - 1]))
else:
self.set_param_value("logwmin", dx[0])
self.set_param_value("logwmax", dx[nmodes - 1])
if self.parent_dataset.parent_application.current_view.log_y:
for i in range(nmodes):
self.set_param_value("logDe%02d" % i, np.log10(dy[i]))
else:
for i in range(nmodes):
self.set_param_value("logDe%02d" % i, dy[i])
self.do_calculate("")
self.update_parameter_table()
def update_modes(self):
"""[summary]
[description]
"""
pass
def setup_graphic_modes(self):
"""[summary]
[description]
"""
nmodes = self.parameters["nmodes"].value
w = np.logspace(self.parameters["logwmin"].value,
self.parameters["logwmax"].value, nmodes)
eps = np.zeros(nmodes)
for i in range(nmodes):
eps[i] = np.power(10, self.parameters["logDe%02d" % i].value)
self.graphicmodes = self.ax.plot(w, eps)[0]
self.graphicmodes.set_marker('D')
self.graphicmodes.set_linestyle('')
self.graphicmodes.set_visible(self.view_modes)
self.graphicmodes.set_markerfacecolor('yellow')
self.graphicmodes.set_markeredgecolor('black')
self.graphicmodes.set_markeredgewidth(3)
self.graphicmodes.set_markersize(8)
self.graphicmodes.set_alpha(0.5)
self.artistmodes = DraggableModesSeries(
self.graphicmodes, DragType.special,
self.parent_dataset.parent_application, self.drag_mode)
self.plot_theory_stuff()
def destructor(self):
"""Called when the theory tab is closed
[description]
"""
self.graphicmodes_visible(False)
self.ax.lines.remove(self.graphicmodes)
def show_theory_extras(self, show=False):
"""Called when the active theory is changed
[description]
"""
if CmdBase.mode == CmdMode.GUI:
self.Qhide_theory_extras(show)
self.graphicmodes_visible(show)
def graphicmodes_visible(self, state):
"""[summary]
[description]
"""
self.view_modes = state
self.graphicmodes.set_visible(self.view_modes)
if self.view_modes:
self.artistmodes.connect()
else:
self.artistmodes.disconnect()
# self.do_calculate("")
self.parent_dataset.parent_application.update_plot()
def get_modes(self):
"""[summary]
[description]
Returns:
- [type] -- [description]
"""
nmodes = self.parameters["nmodes"].value
freq = np.logspace(self.parameters["logwmin"].value,
self.parameters["logwmax"].value, nmodes)
tau = 1.0 / freq
eps = np.zeros(nmodes)
for i in range(nmodes):
eps[i] = np.power(10, self.parameters["logDe%02d" % i].value)
return tau, eps
def set_modes(self, tau, eps):
"""[summary]
[description]
Arguments:
- tau {[type]} -- [description]
- eps {[type]} -- [description]
"""
print("set_modes not allowed in this theory (%s)" % self.name)
def KWWModesFrequency(self, f=None):
"""[summary]
[description]
Keyword Arguments:
- f {[type]} -- [description] (default: {None})
"""
ft = f.data_table
tt = self.tables[f.file_name_short]
tt.num_columns = ft.num_columns
tt.num_rows = ft.num_rows
tt.data = np.zeros((tt.num_rows, tt.num_columns))
tt.data[:, 0] = ft.data[:, 0]
einf = self.parameters["einf"].value
beta = self.parameters["beta"].value
nmodes = self.parameters["nmodes"].value
freq = np.logspace(self.parameters["logwmin"].value,
self.parameters["logwmax"].value, nmodes)
tau = 1.0 / freq
tt.data[:, 1] += einf
for i in range(nmodes):
if self.stop_theory_flag:
break
eps = np.power(10, self.parameters["logDe%02d" % i].value)
for j, w in enumerate(tt.data[:, 0]):
tt.data[j, 1] += eps * kwwc(w * tau[i], beta)
tt.data[j, 2] += eps * kwws(w * tau[i], beta)
def plot_theory_stuff(self):
"""[summary]
[description]
"""
# if not self.view_modes:
# return
data_table_tmp = DataTable(self.axarr)
data_table_tmp.num_columns = 3
nmodes = self.parameters["nmodes"].value
data_table_tmp.num_rows = nmodes
data_table_tmp.data = np.zeros((nmodes, 3))
freq = np.logspace(self.parameters["logwmin"].value,
self.parameters["logwmax"].value, nmodes)
data_table_tmp.data[:, 0] = freq
for i in range(nmodes):
if self.stop_theory_flag:
break
data_table_tmp.data[i, 1] = data_table_tmp.data[i, 2] = np.power(
10, self.parameters["logDe%02d" % i].value)
view = self.parent_dataset.parent_application.current_view
try:
x, y, success = view.view_proc(data_table_tmp, None)
except TypeError as e:
print(e)
return
self.graphicmodes.set_data(x, y)
for i in range(data_table_tmp.MAX_NUM_SERIES):
for nx in range(len(self.axarr)):
self.axarr[nx].lines.remove(data_table_tmp.series[nx][i])