def selected_element(event):
standard = res_standard.combobox.get()
diameter_in = res_diameter_in.combobox.get()
# Getting the name from the database
standard = SQLite.output_name_sen_and_tube_s(element, AFL.del_symbol(standard))
diameter_in = SQLite.output_name_sen_and_tube_d_i(element, AFL.del_symbol(diameter_in))
result = AFL.intersection_2(standard, diameter_in)
frame_result = FrameResult.FrameResult(master=master)
frame_result.grid(row=10, column=0, columnspan=4)
AFR.output_radiobutton(element, result, frame_result)
def selected_element(event):
diameter_in = res_diameter_in.combobox.get()
color = res_color.combobox.get()
# Getting the name from the database
diameter_in = SQLite.output_name_sen_and_tube_d_i(
parent, AFL.del_symbol(diameter_in))
color = SQLite.output_name_sen_and_tube_c(parent,
AFL.del_symbol(color))
result = AFL.intersection_2(diameter_in, color)
frame_result = FrameResult.FrameResult(master=master)
frame_result.grid(row=10, column=0, columnspan=4)
AFR.output_radiobutton(parent, result, frame_result)
def selected_element(event):
wall_thickness = res_wall_thickness.combobox.get()
diameter_in = res_diameter_in.combobox.get()
diameter_out = res_diameter_out.combobox.get()
# Getting the name from the database
wall_thickness = SQLite.output_name_sen_and_tube_w_t(parent, AFL.del_symbol(wall_thickness))
diameter_in = SQLite.output_name_sen_and_tube_d_i(parent, AFL.del_symbol(diameter_in))
diameter_out = SQLite.output_name_sen_and_tube_d_o(parent, AFL.del_symbol(diameter_out))
result = AFL.intersection_3(wall_thickness, diameter_in, diameter_out)
frame_result = FrameResult.FrameResult(master=master)
frame_result.grid(row=10, column=0, columnspan=4)
AFR.output_radiobutton(parent, result, frame_result)
def selected_element(event):
wire_thickness = res_wire_thickness.combobox.get()
color = res_color.combobox.get()
mark = res_mark.combobox.get()
section = res_section.combobox.get()
# Getting the name from the database
wire_thickness = SQLite.output_name_wire_w_t(
parent, AFL.del_symbol(wire_thickness))
color = SQLite.output_name_wire_c(parent, AFL.del_symbol(color))
mark = SQLite.output_name_wire_m(parent, AFL.del_symbol(mark))
section = SQLite.output_name_wire_sec(parent, AFL.del_symbol(section))
result = AFL.intersection_4(wire_thickness, color, mark, section)
frame_result = FrameResult.FrameResult(master=master)
frame_result.grid(row=10, column=0, columnspan=4)
AFR.output_radiobutton(parent, result, frame_result)
def add_list_to_tree_from_file(tree: ttk.Treeview) -> str:
result = ''
for line in SQLite.sel_from_material():
if line[0] == 1:
result = line[1].lower()
tree.insert(line[2].lower(), line[3], line[1].lower(), text=line[1])
return result
def read_file(parent, element, standard) -> list:
if (parent == 'sennit') or (parent == 'tube'):
if element == 'standard':
return SQLite.sel_standard_from_sennit_and_tube([parent, ])
elif element == 'diameter_in':
return SQLite.sel_diameter_in_from_sennit_and_tube(parent, standard)
elif element == 'wall_thickness':
return SQLite.sel_wall_thickness_from_sennit_and_tube(parent, standard)
elif element == 'diameter_out':
return SQLite.sel_diameter_out_from_sennit_and_tube(parent, standard)
elif element == 'color':
return SQLite.sel_color_from_sennit_and_tube(parent, standard)
elif parent == 'wire':
if element == 'standard':
return SQLite.sel_standard_from_wire(parent)
elif element == 'wire_thickness':
return SQLite.sel_wire_thickness_from_wire(parent, standard)
elif element == 'color':
return SQLite.sel_color_from_wire(parent, standard)
elif element == 'mark':
return SQLite.sel_brand_from_wire(parent, standard)
elif element == 'section':
return SQLite.sel_section_from_wire(parent, standard)
def template_sennit(parent, name):
result = SQLite.sel_all_from_sennit_and_tube(parent, name)
path = result[0][0] + '.spl'
f = ''
try:
f = open(path, 'w')
except FileNotFoundError:
Logs.logger.error('File was not opened!')
try:
if f:
try:
f.write("! Ввести или изменить параметры для катушки. \n")
f.write("! Вы можете исп. справку в Pro/TABLE \n")
f.write("! Ввод предопределенных параметров. \n")
f.write("! Имя Катушки \n")
f.write("NAME " + result[0][0] + '\n')
f.write("! Тип катушки \n")
f.write("TYPE " + result[0][1] + '\n')
f.write("! Тип оболочки \n")
f.write("SHEATH_TYPE " + result[0][2] + '\n')
f.write("! Толщина стены \n")
f.write("WALL_THICKNESS " + result[0][3] + '\n')
f.write("! Мин. Радиус Изгиба \n")
f.write("MIN_BEND_RADIUS " + result[0][4] + '\n')
f.write("! Единицы измерения \n")
f.write("UNITS " + result[0][5] + '\n')
f.write("! Внутренний диаметр до усадки \n")
f.write("PRESHRINK_INNER_DIAMETER " + result[0][6] + '\n')
f.write("! Наружный диаметр \n")
f.write("OUTER_DIAMETER " + result[0][7] + '\n')
f.write("! Единицы измерения массы \n")
f.write("MASS_UNITS " + result[0][8] + '\n')
f.write("! Плотность Провода \n")
f.write("DENSITY " + result[0][9] + '\n')
f.write("! Цвет \n")
f.write("COLOR " + result[0][10] + '\n')
f.write("СТАНДАРТ " + '"' + result[0][11] + '"' + '\n')
f.write("НАИМЕНОВАНИЕ " + '"' + result[0][12] + '"' + '\n')
f.write("ОБОЗНАЧЕНИЕ " + result[0][13] + '\n')
except ValueError:
Logs.logger.error('Error writing to file!')
f.close()
except NameError:
Logs.logger.error('Variable was not found!')