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How to use for_name method in Gherkin-python
Best Python code snippet using gherkin-python
lapunow.py
Source:lapunow.py 
...10if not os.path.exists('tex/svg'):11 os.makedirs('tex/svg')12begin = time()13width, height = 10, 1014for_name("van_der_poll_1", width, height, arrows=[0.2, 0.6]) \15 (lambda t, y: van_der_poll(y, 1),16 lambda: init_points_on_rectangle(width, height), [17 lambda: plt.plot([0], [0], 'ro', label="Punkt równowagi asymptotycznie stabilny")18 ])19for_name("van_der_poll_1_lin", width, height, arrows=[0.2, 0.6], linear=1) \20 (lambda t, y: van_der_poll(y, 1),21 lambda: init_points_on_rectangle(width, height, n=40), [22 lambda: plt.plot([0], [0], 'ro', label="Punkt równowagi asymptotycznie stabilny")23 ])24for_name("van_der_poll_1_both_far", width, height, arrows=[0.2, 0.6], linear=2) \25 (lambda t, y: van_der_poll(y, 1),26 lambda: init_points_on_rectangle(width, height, n=40), [27 lambda: plt.plot([0], [0], 'ro', label="Punkt równowagi asymptotycznie stabilny")28 ])29width /= 1030height /= 1031for_name("van_der_poll_1_both_close", width, height, arrows=[0.2, 0.6], linear=2) \32 (lambda t, y: van_der_poll(y, 1),33 lambda: init_points_on_rectangle(width, height, n=20), [34 lambda: plt.plot([0], [0], 'ro', label="Punkt równowagi asymptotycznie stabilny")35 ])36width, height = 10, 1037for_name("van_der_poll_2", width, height, arrows=[0.2, 0.6]) \38 (lambda t, y: van_der_poll(y, 2),39 lambda: init_points_on_rectangle(width, height), [40 lambda: plt.plot([0], [0], 'ro', label="Punkt równowagi asymptotycznie stabilny")41 ])42for_name("van_der_poll_2_lin", width, height, arrows=[0.2, 0.6], linear=1) \43 (lambda t, y: van_der_poll(y, 2),44 lambda: init_points_on_rectangle(width, height, n=40), [45 lambda: plt.plot([0], [0], 'ro', label="Punkt równowagi asymptotycznie stabilny")46 ])47for_name("van_der_poll_2_both_far", width, height, arrows=[0.2, 0.6], linear=2) \48 (lambda t, y: van_der_poll(y, 2),49 lambda: init_points_on_rectangle(width, height, n=40), [50 lambda: plt.plot([0], [0], 'ro', label="Punkt równowagi asymptotycznie stabilny")51 ])52width /= 1053height /= 1054for_name("van_der_poll_2_both_close", width, height, arrows=[0.2, 0.6], linear=2) \55 (lambda t, y: van_der_poll(y, 2),56 lambda: init_points_on_rectangle(width, height, n=20), [57 lambda: plt.plot([0], [0], 'ro', label="Punkt równowagi asymptotycznie stabilny")58 ])59width, height = 10, 1060a = 5 / 261for_name("van_der_poll_5", width, height, arrows=[0.2, 0.6]) \62 (lambda t, y: van_der_poll(y, a),63 lambda: init_points_on_rectangle(width, height), [64 lambda: plt.plot([0], [0], 'ro', label="Punkt równowagi asymptotycznie stabilny")65 ])66for_name("van_der_poll_5_lin", width, height, arrows=[0.2, 0.6], linear=1) \67 (lambda t, y: van_der_poll(y, a),68 lambda: init_points_on_rectangle(width, height, n=40), [69 lambda: plt.plot([0], [0], 'ro', label="Punkt równowagi asymptotycznie stabilny")70 ])71for_name("van_der_poll_5_both_far", width, height, arrows=[0.2, 0.6], linear=2) \72 (lambda t, y: van_der_poll(y, a),73 lambda: init_points_on_rectangle(width, height, n=40), [74 lambda: plt.plot([0], [0], 'ro', label="Punkt równowagi asymptotycznie stabilny")75 ])76width /= 1077height /= 1078for_name("van_der_poll_5_both_close", width, height, arrows=[0.2, 0.6], linear=2) \79 (lambda t, y: van_der_poll(y, a),80 lambda: init_points_on_rectangle(width, height, n=20), [81 lambda: plt.plot([0], [0], 'ro', label="Punkt równowagi asymptotycznie stabilny")82 ])83width, height = 10, 1084for_name("van_der_poll_0", width, height, arrows=[0.1, 0.2]) \85 (lambda t, y: van_der_poll(y, 0),86 lambda: init_points_on_rectangle(width, height))87for_name("van_der_poll_0_lin", width, height, arrows=[0.2, 0.6], linear=1) \88 (lambda t, y: van_der_poll(y, 0),89 lambda: init_points_on_rectangle(width, height, n=40))90for_name("van_der_poll_0_both_far", width, height, arrows=[0.2, 0.6], linear=2) \91 (lambda t, y: van_der_poll(y, 0),92 lambda: init_points_on_rectangle(width, height, n=40))93width /= 1094height /= 1095for_name("van_der_poll_0_both_close", width, height, arrows=[0.2, 0.6], linear=2) \96 (lambda t, y: van_der_poll(y, 0),97 lambda: init_points_on_rectangle(width, height, n=20))98width, height = 10, 1099for_name("van_der_poll_0_5", width, height, arrows=[0.2, 0.6]) \100 (lambda t, y: van_der_poll(y, 0.5),101 lambda: init_points_on_rectangle(width, height), [102 lambda: plt.plot([0], [0], 'ro', label="Punkt równowagi asymptotycznie stabilny")103 ])104for_name("van_der_poll_0_5_lin", width, height, arrows=[0.2, 0.6], linear=1) \105 (lambda t, y: van_der_poll(y, 0.5),106 lambda: init_points_on_rectangle(width, height, n=40), [107 lambda: plt.plot([0], [0], 'ro', label="Punkt równowagi asymptotycznie stabilny")108 ])109for_name("van_der_poll_0_5_both_far", width, height, arrows=[0.2, 0.6], linear=2) \110 (lambda t, y: van_der_poll(y, 0.5),111 lambda: init_points_on_rectangle(width, height, n=40), [112 lambda: plt.plot([0], [0], 'ro', label="Punkt równowagi asymptotycznie stabilny")113 ])114width /= 10115height /= 10116for_name("van_der_poll_0_5_both_close", width, height, arrows=[0.2, 0.6], linear=2) \117 (lambda t, y: van_der_poll(y, 0.5),118 lambda: init_points_on_rectangle(width, height, n=20), [119 lambda: plt.plot([0], [0], 'ro', label="Punkt równowagi asymptotycznie stabilny")120 ])121temp = lambda x: 0.02517517 * x ** 3 + 0.23480313 * x ** 2 - 0.93830795 * x - 4.47556726 if -8 < x < 1 else -255 * x - 6122x = np.linspace(-20, 20, 300)123right = lambda x: temp(x - 2 * np.pi)124more_right = lambda x: right(x - 2 * np.pi)125middle = lambda x: right(x + 2 * np.pi)126left = lambda x: middle(x + 2 * np.pi)127left = np.array(list(map(left, x)))128middle = np.array(list(map(middle, x)))129more_right = np.array(list(map(more_right, x)))130right = np.array(list(map(right, x)))131height, width = 10, 20132for_name("pendulum_1", 20, 10, arrows=[0.2, 0.6]) \133 (lambda t, y: pendulum(y, 1, 1),134 lambda: init_points_on_rectangle(20, 10, n=100),135 [lambda: plt.fill_between(x, left, -height / 2 * np.ones(len(x)),136 where=left > -height / 2,137 facecolor='red', alpha=0.1),138 lambda: plt.fill_between(x, more_right, height / 2 * np.ones(len(x)),139 where=right < height / 2,140 facecolor='orange', alpha=0.1),141 lambda: plt.fill_between(x, more_right, right,142 where=right < more_right / 2,143 facecolor='green', alpha=0.1),144 lambda: plt.fill_between(x, left, middle,145 where=left < middle,146 facecolor='blue', alpha=0.1),147 lambda: plt.fill_between(x, middle, right,148 where=left < right,149 facecolor='yellow', alpha=0.1),150 lambda: plt.plot([-2 * np.pi, 0, 2 * np.pi], np.zeros(3), 'ro', label="Punkty równowagi asymptotycznie stabilne")151 ])152for_name("pendulum_1_lin", width, height, arrows=[0.2, 0.6], linear=1) \153 (lambda t, y: pendulum(y, 1, 1),154 lambda: init_points_on_rectangle(width, height, n=100),155 [lambda: plt.plot([0], [0], 'ro', label="Punkt równowagi asymptotycznie stabilny")])156for_name("pendulum_1_both_far", width, height, arrows=[0.2, 0.6], linear=2) \157 (lambda t, y: pendulum(y, 1, 1),158 lambda: init_points_on_rectangle(width, height, n=100),159 [lambda: plt.plot([-2 * np.pi, 0, 2 * np.pi], np.zeros(3), 'ro',160 label="Punkty równowagi asymptotycznie stabilne")])161width /= 10162height /= 10163for_name("pendulum_1_both_close", width, height, arrows=[0.2, 0.6], linear=2) \164 (lambda t, y: pendulum(y, 1, 1),165 lambda: init_points_on_rectangle(width, height, n=20),166 [lambda: plt.plot([0], [0], 'ro', label="Punkt równowagi asymptotycznie stabilny")])167temp = lambda x: -2.267609 * x - 6.77998446168x = np.linspace(-20, 20, 300)169right = lambda x: temp(x - 2 * np.pi)170more_right = lambda x: right(x - 2 * np.pi)171middle = lambda x: right(x + 2 * np.pi)172left = lambda x: middle(x + 2 * np.pi)173left = np.array(list(map(left, x)))174middle = np.array(list(map(middle, x)))175more_right = np.array(list(map(more_right, x)))176right = np.array(list(map(right, x)))177height, width = 10, 20178for_name("pendulum_2", width, height, arrows=[0.2, 0.6]) \179 (lambda t, y: pendulum(y, 1, 2),180 lambda: init_points_on_rectangle(20, 10, n=100),181 [lambda: plt.fill_between(x, left, -height / 2 * np.ones(len(x)),182 where=left > -height / 2,183 facecolor='red', alpha=0.1),184 lambda: plt.fill_between(x, more_right, height / 2 * np.ones(len(x)),185 where=right < height / 2,186 facecolor='orange', alpha=0.1),187 lambda: plt.fill_between(x, more_right, right,188 where=right < more_right / 2,189 facecolor='green', alpha=0.1),190 lambda: plt.fill_between(x, left, middle,191 where=left < middle,192 facecolor='blue', alpha=0.1),193 lambda: plt.fill_between(x, middle, right,194 where=left < right,195 facecolor='yellow', alpha=0.1),196 lambda: plt.plot([-2 * np.pi, 0, 2 * np.pi], np.zeros(3), 'ro', label="Punkty równowagi asymptotycznie stabilne")197 ])198for_name("pendulum_2_lin", width, height, arrows=[0.2, 0.6], linear=1) \199 (lambda t, y: pendulum(y, 1, 2),200 lambda: init_points_on_rectangle(width, height, n=100),201 [lambda: plt.plot([0], [0], 'ro', label="Punkt równowagi asymptotycznie stabilny")])202for_name("pendulum_2_both_far", width, height, arrows=[0.2, 0.6], linear=2) \203 (lambda t, y: pendulum(y, 1, 2),204 lambda: init_points_on_rectangle(width, height, n=100),205 [lambda: plt.plot([-2 * np.pi, 0, 2 * np.pi], np.zeros(3), 'ro',206 label="Punkty równowagi asymptotycznie stabilne")])207width /= 10208height /= 10209for_name("pendulum_2_both_close", width, height, arrows=[0.2, 0.6], linear=2) \210 (lambda t, y: pendulum(y, 1, 2),211 lambda: init_points_on_rectangle(width, height, n=20),212 [lambda: plt.plot([0], [0], 'ro', label="Punkt równowagi asymptotycznie stabilny")])213for_name("pendulum_3", 20, 10, arrows=[0.2, 0.6]) \214 (lambda t, y: pendulum(y, 4, 0),215 lambda: corner_case_dumping_init_points(20, 10))216x = np.linspace(-20, 20, 300)217right = lambda x: -3.26072184 * x + 10.24415909218more_right = lambda x: right(x - 2 * np.pi)219middle = lambda x: right(x + 2 * np.pi)220left = lambda x: middle(x + 2 * np.pi)221left = np.array(list(map(left, x)))222middle = np.array(list(map(middle, x)))223more_right = np.array(list(map(more_right, x)))224right = np.array(list(map(right, x)))225height, width = 10, 20226for_name("pendulum_4", width, height, arrows=[0.2, 0.6]) \227 (lambda t, y: pendulum(y, 1, 5 / 2),228 lambda: init_points_on_rectangle(width, height, 80),229 [lambda: plt.fill_between(x, left, -height / 2 * np.ones(len(x)),230 where=left > -height / 2,231 facecolor='red', alpha=0.1),232 lambda: plt.fill_between(x, more_right, height / 2 * np.ones(len(x)),233 where=right < height / 2,234 facecolor='orange', alpha=0.1),235 lambda: plt.fill_between(x, more_right, right,236 where=right < more_right / 2,237 facecolor='green', alpha=0.1),238 lambda: plt.fill_between(x, left, middle,239 where=left < middle,240 facecolor='blue', alpha=0.1),241 lambda: plt.fill_between(x, middle, right,242 where=left < right,243 facecolor='yellow', alpha=0.1),244 lambda: plt.plot([-2 * np.pi, 0, 2 * np.pi], np.zeros(3), 'ro', label="Punkty równowagi asymptotycznie stabilne")245 ])246for_name("pendulum_4_lin", width, height, arrows=[0.2, 0.6], linear=1) \247 (lambda t, y: pendulum(y, 1, 5 / 2),248 lambda: init_points_on_rectangle(width, height, 80),249 [lambda: plt.plot([0], [0], 'ro', label="Punkt równowagi asymptotycznie stabilny")])250for_name("pendulum_4_both_far", width, height, arrows=[0.2, 0.6], linear=2) \251 (lambda t, y: pendulum(y, 1, 5 / 2),252 lambda: init_points_on_rectangle(20, 10, 80),253 [lambda: plt.plot([-2 * np.pi, 0, 2 * np.pi], np.zeros(3), 'ro',254 label="Punkty równowagi asymptotycznie stabilne")])255for_name("pendulum_4_both_close", 2, 1, arrows=[0.2, 0.6], linear=2) \256 (lambda t, y: pendulum(y, 1, 5 / 2),257 lambda: init_points_on_rectangle(2, 1, 20),258 [lambda: plt.plot([0], [0], 'ro', label="Punkt równowagi asymptotycznie stabilny")])259for_name("mechanical_hard_1", 10, 10, arrows=[0.3, 0.6]) \260 (lambda t, y: mechanical_system(y, 1, 1, 1.5),261 lambda: init_points_on_rectangle(10, 10, n=30),262 [lambda: plt.plot([0], [0], 'ro', label="Punkt równowagi asymptotycznie stabilny")])263for_name("mechanical_hard_1_lin", 10, 10, arrows=[0.3, 0.6], linear=1) \264 (lambda t, y: mechanical_system(y, 1, 1, 1.5),265 lambda: init_points_on_rectangle(10, 10, n=30),266 [lambda: plt.plot([0], [0], 'ro', label="Punkt równowagi asymptotycznie stabilny")])267for_name("mechanical_hard_1_both_close", 1, 1, arrows=[0.3, 0.6], linear=2) \268 (lambda t, y: mechanical_system(y, 1, 1, 1.5),269 lambda: init_points_on_rectangle(1, 1, n=20),270 [lambda: plt.plot([0], [0], 'ro', label="Punkt równowagi asymptotycznie stabilny")])271for_name("mechanical_hard_2", 10, 10, arrows=[0.3, 0.6]) \272 (lambda t, y: mechanical_system(y, 2, 1, 1.5),273 lambda: init_points_on_rectangle(10, 10, n=30),274 [lambda: plt.plot([0], [0], 'ro', label="Punkt równowagi asymptotycznie stabilny")])275for_name("mechanical_hard_2_lin", 10, 10, arrows=[0.3, 0.6], linear=1) \276 (lambda t, y: mechanical_system(y, 2, 1, 1.5),277 lambda: init_points_on_rectangle(10, 10, n=30),278 [lambda: plt.plot([0], [0], 'ro', label="Punkt równowagi asymptotycznie stabilny")])279for_name("mechanical_hard_2_both_close", 1, 1, arrows=[0.3, 0.6], linear=2) \280 (lambda t, y: mechanical_system(y, 2, 1, 1.5),281 lambda: init_points_on_rectangle(1, 1, n=20),282 [lambda: plt.plot([0], [0], 'ro', label="Punkt równowagi asymptotycznie stabilny")])283for_name("mechanical_hard_3", 10, 10, arrows=[0.3, 0.6]) \284 (lambda t, y: mechanical_system(y, 5 / 2, 1, 1.5),285 lambda: init_points_on_rectangle(10, 10, n=30),286 [lambda: plt.plot([0], [0], 'ro', label="Punkt równowagi asymptotycznie stabilny")])287for_name("mechanical_hard_3_lin", 10, 10, arrows=[0.3, 0.6], linear=1) \288 (lambda t, y: mechanical_system(y, 5 / 2, 1, 1.5),289 lambda: init_points_on_rectangle(10, 10, n=30),290 [lambda: plt.plot([0], [0], 'ro', label="Punkt równowagi asymptotycznie stabilny")])291for_name("mechanical_hard_3_both_close", 1, 1, arrows=[0.3, 0.6], linear=2) \292 (lambda t, y: mechanical_system(y, 5 / 2, 1, 1.5),293 lambda: init_points_on_rectangle(1, 1, n=20),294 [lambda: plt.plot([0], [0], 'ro', label="Punkt równowagi asymptotycznie stabilny")])295width, height = 4, 4296x = np.linspace(-width / 2, width / 2)297lower_poly = lambda x: -0.13094286 * x ** 3 + 0.37710916 * x ** 2 - 1.08021611 * x - 1.1802789298upper_poly = lambda x: -lower_poly(-x)299upper_poly = np.array(list(map(upper_poly, x)))300lower_poly = np.array(list(map(lower_poly, x)))301for_name("mechanical_soft_1", width, height, arrows=[0.4, 0.6]) \302 (lambda t, y: mechanical_system(y, 1, 1, -1.5),303 lambda: special_init_for_negative_spring(),304 [lambda: plt.fill_between(x, lower_poly, -height / 2 * np.ones(len(x)),305 where=lower_poly > -height / 2,306 facecolor='red', alpha=0.1),307 lambda: plt.fill_between(x, upper_poly, height / 2 * np.ones(len(x)),308 where=upper_poly < height / 2,309 facecolor='red', alpha=0.1),310 lambda: plt.fill_between(x, lower_poly, upper_poly,311 where=lower_poly < upper_poly,312 facecolor='green', alpha=0.1),313 lambda: plt.plot([0], [0], 'ro', label="Punkt równowagi asymptotycznie stabilny")314 ])315for_name("mechanical_soft_1_lin", width, height, arrows=[0.4, 0.6], linear=1) \316 (lambda t, y: mechanical_system(y, 1, 1, -1.5),317 lambda: init_points_on_rectangle(width, height),318 [lambda: plt.plot([0], [0], 'ro', label="Punkt równowagi asymptotycznie stabilny")])319for_name("mechanical_soft_1_both_close", width / 10, height / 10, arrows=[0.4, 0.6], linear=2) \320 (lambda t, y: mechanical_system(y, 1, 1, -1.5),321 lambda: init_points_on_rectangle(width / 10, height / 10, n=20),322 [lambda: plt.plot([0], [0], 'ro', label="Punkt równowagi asymptotycznie stabilny")])323width, height = 4, 4324x = np.linspace(-width / 2, width / 2)325lower_poly = lambda x: 0.01265222 * x ** 3 + 0.66256018 * x ** 2 - 1.87728598 * x - 1.96903007326upper_poly = lambda x: -lower_poly(-x)327upper_poly = np.array(list(map(upper_poly, x)))328lower_poly = np.array(list(map(lower_poly, x)))329for_name("mechanical_soft_2", width, height, arrows=[0.4, 0.6]) \330 (lambda t, y: mechanical_system(y, 2, 1, -1.5),331 lambda: special_init_for_negative_spring(),332 [lambda: plt.fill_between(x, lower_poly, -height / 2 * np.ones(len(x)),333 where=lower_poly > -height / 2,334 facecolor='red', alpha=0.1),335 lambda: plt.fill_between(x, upper_poly, height / 2 * np.ones(len(x)),336 where=upper_poly < height / 2,337 facecolor='red', alpha=0.1),338 lambda: plt.fill_between(x, lower_poly, upper_poly,339 where=lower_poly < upper_poly,340 facecolor='green', alpha=0.1),341 lambda: plt.plot([0], [0], 'ro', label="Punkt równowagi asymptotycznie stabilny")342 ])343plt.show()344for_name("mechanical_soft_2_lin", width, height, arrows=[0.4, 0.6], linear=1) \345 (lambda t, y: mechanical_system(y, 2, 1, -1.5),346 lambda: init_points_on_rectangle(width, height),347 [lambda: plt.plot([0], [0], 'ro', label="Punkt równowagi asymptotycznie stabilny")])348for_name("mechanical_soft_2_both_close", width / 10, height / 10, arrows=[0.4, 0.6], linear=2) \349 (lambda t, y: mechanical_system(y, 2, 1, -1.5),350 lambda: init_points_on_rectangle(width / 10, height / 10, n=20),351 [lambda: plt.plot([0], [0], 'ro', label="Punkt równowagi asymptotycznie stabilny")])352width, height = 4, 4353x = np.linspace(-width / 2, width / 2)354lower_poly = lambda x: 0.80559558 * x ** 3 + 2.12435124 * x ** 2 - 1.53257783 * x - 2.17405905 if x < 0 else -50355upper_poly = lambda x: -lower_poly(-x)356upper_poly = np.array(list(map(upper_poly, x)))357lower_poly = np.array(list(map(lower_poly, x)))358for_name("mechanical_soft_3", width, height, arrows=[0.4, 0.6]) \359 (lambda t, y: mechanical_system(y, 5 / 2, 1, -1.5),360 lambda: special_init_for_negative_spring(),361 [lambda: plt.fill_between(x, lower_poly, -height / 2 * np.ones(len(x)),362 where=lower_poly > -height / 2,363 facecolor='red', alpha=0.1),364 lambda: plt.fill_between(x, upper_poly, height / 2 * np.ones(len(x)),365 where=upper_poly < height / 2,366 facecolor='red', alpha=0.1),367 lambda: plt.fill_between(x, lower_poly, upper_poly,368 where=lower_poly < upper_poly,369 facecolor='green', alpha=0.1),370 lambda: plt.plot([0], [0], 'ro', label="Punkt równowagi asymptotycznie stabilny")371 ])372plt.show()373for_name("mechanical_soft_3_lin", width, height, arrows=[0.4, 0.6], linear=1) \374 (lambda t, y: mechanical_system(y, 5 / 2, 1, -1.5),375 lambda: init_points_on_rectangle(width, height),376 [lambda: plt.plot([0], [0], 'ro', label="Punkt równowagi asymptotycznie stabilny")])377for_name("mechanical_soft_3_both_close", width / 10, height / 10, arrows=[0.4, 0.6], linear=2) \378 (lambda t, y: mechanical_system(y, 5 / 2, 1, -1.5),379 lambda: init_points_on_rectangle(width / 10, height / 10, n=20),380 [lambda: plt.plot([0], [0], 'ro', label="Punkt równowagi asymptotycznie stabilny")])381tex_image_format = """382\\begin{figure}[H]383 \\centering384 \\def \\svgwidth{0.7\\columnwidth}385 \\input{%s.pdf_tex}386 \\caption{TODO}387\\end{figure}\\noindent388"""389with open('tex/temp.tex', mode='w') as temp_tex:390 for fileName in fileNames:391 call(['inkscape -D -z --file=tex/svg/' + fileName + '.svg' +...
models.py
Source:models.py
1from django.core.urlresolvers import reverse2from django.db import models3from billing.models import BillingProfile4ADDRESS_TYPES = (5 ('billing', 'Billing'),6 ('shipping', 'Shipping')7)8class Address(models.Model):9 billing_profile = models.ForeignKey(BillingProfile)10 name = models.CharField(max_length=120, null=True, blank=True, help_text='Shipping to? Who is it for?')11 nickname = models.CharField(max_length=120, null=True, blank=True, help_text='Internal Reference Nickname')12 address_type = models.CharField(max_length=120, choices=ADDRESS_TYPES)13 address_line_1 = models.CharField(max_length=120)14 address_line_2 = models.CharField(max_length=120, null=True, blank=True)15 country = models.CharField(max_length=120, default='Russia')16 city = models.CharField(max_length=120)17 region = models.CharField(max_length=120)18 postal_code = models.CharField(max_length=120)19 def __str__(self):20 if self.nickname:21 return str(self.nickname)22 return str(self.billing_profile)23 def get_absolute_url(self):24 return reverse('address-update', kwargs={'pk': self.pk})25 def get_short_address(self):26 for_name = self.name27 if self.nickname:28 for_name = f"{self.nickname} | {for_name}"29 return "{for_name} {line1}, {city}".format(30 for_name=for_name or '',31 line1=self.address_line_1,32 city=self.city33 )34 def get_address(self):35 return "{for_name}\n{line1}\n{line2}\n{city}\n{region}, {postal}\n{country}".format(36 for_name=self.name or "",37 line1=self.address_line_1,38 line2=self.address_line_2 or "",39 city=self.city,40 region=self.region,41 postal=self.postal_code,42 country=self.country...
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