1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
16
17
18
19
20
21
22
23
24
25
26
27
28
29
30
31
32
33
34
35
36
37
38
39
40
41
42
43
44
45
46
47
48
49
50
51
52
53
54
55
56
57
58
59
60
61
62
63
64
65
66
67
68
69
70
71
72
73
74
75
76
77
78
79
80
81
82
83
84
85
86
87
88
89
90
91
92
93
94
95
96
97
98
99
100
101
102
103
104
105
106
107
108
109
110
111
112
113
114
115
116
117
118
119
120
121
122
123
124
125
126
127
128
129
130
131
132
133
134
135
136
137
138
139
140
141
142
143
144
145
146
147
148
149
150
151
152
153
154
155
156
157
158
159
160
161
162
163
164
165
166
167
168
169
170
171
172
173
174
175
176
177
178
179
180
181
182
183
184
185
186
187
188
189
190
191
192
193
194
195
196
197
198
199
200
201
202
203
204
205
206
207
208
209
210
211
212
213
214
215
216
217
218
219
220
221
222
223
224
225
226
227
228
229
230
231
232
233
234
235
236
237
238
239
240
241
242
243
244
245
246
247
248
249
250
251
252
253
254
255
256
257
258
259
260
261
262
263
264
265
266
267
268
269
270
271
272
273
274
275
276
277
278
279
280
281
282
283
284
285
286
287
288
289
290
291
292
293
294
295
296
297
298
299
300
301
302
303
304
305
306
307
308
309
310
311
312
313
314
315
316
317
318
319
320
321
322
323
324
325
326
327
328
329
330
331
332
333
334
335
336
337
338
339
340
341
342
343
344
345
346
347
348
349
350
351
352
353
354
355
356
357
358
359
360
361
362
363
364
365
366
367
368
369
370
371
372
373
374
375
376
377
378
379
380
381
382
383
384
385
386
387
388
389
390
391
392
393
394
395
396
397
398
399
400
401
402
403
404
405
406
407
408
409
410
411
412
413
414
415
416
417
418
419
420
421
422
423
424
425
426
427
428
429
430
431
432
433
434
435
436
437
438
439
440
441
442
443
444
445
446
447
448
449
450
451
452
453
454
455
456
457
458
459
460
461
462
463
464
465
466
467
468
469
470
471
472
473
474
475
476
477
478
479
480
481
482
483
484
485
486
487
488
489
490
491
492
493
494
495
496
497
498
499
500
501
502
503
504
505
506
507
508
509
510
511
512
513
514
515
516
517
518
519
520
521
522
523
524
525
526
527
528
529
530
531
532
533
534
535
536
537
538
539
540
541
542
543
544
545
546
547
548
549
550
551
552
553
554
555
556
557
558
559
560
561
562
563
564
565
566
567
568
569
570
571
572
573
574
575
576
577
578
579
580
581
582
583
584
585
586
587
588
589
590
591
592
593
594
595
596
597
598
599
600
601
602
603
604
605
606
607
608
609
610
611
612
613
614
615
616
617
618
619
620
621
622
623
624
625
626
627
628
629
630
631
632
633
634
635
636
637
638
639
640
641
642
643
644
645
646
647
648
649
650
651
652
653
654
655
656
657
658
659
660
661
662
663
664
665
666
667
668
669
670
671
672
673
674
675
676
677
678
679
680
681
682
683
684
685
686
687
688
689
690
691
692
693
694
695
696
697
698
699
700
701
702
703
704
705
706
707
708
709
710
711
712
713
714
715
716
717
718
719
720
721
722
723
724
725
726
727
728
729
730
731
732
733
734
735
736
737
738
739
740
741
742
743
744
745
746
747
748
749
750
751
752
753
754
755
756
757
758
759
760
761
762
763
764
765
766
767
768
769
770
771
772
773
774
775
776
777
778
779
780
781
782
783
784
785
786
787
788
789
790
791
792
793
794
795
796
797
798
799
800
801
802
803
804
805
806
807
808
809
810
811
812
813
814
815
816
817
818
819
820
821
822
823
824
825
826
827
828
829
830
831
832
833
834
835
836
837
838
839
840
841
842
843
844
845
846
847
848
849
850
851
852
853
854
855
856
857
858
859
860
861
862
863
864
865
866
867
868
869
870
871
872
873
874
875
876
877
878
879
880
881
882
883
884
885
886
887
888
889
890
891
892
893
894
895
896
897
898
899
900
901
902
903
904
905
906
907
908
909
910
911
912
913
914
915
916
917
918
919
920
921
922
923
924
925
926
927
928
929
930
931
932
933
934
935
936
937
938
939
940
941
942
943
944
945
946
947
948
949
950
951
952
953
954
955
956
957
958
959
960
961
962
963
964
965
966
967
968
969
970
971
972
973
974
975
976
977
978
979
980
981
982
983
984
985
986
987
988
989
990
991
992
993
994
995
996
997
998
999
1000
1001
1002
1003
1004
1005
1006
1007
1008
1009
1010
1011
1012
1013
1014
1015
1016
1017
1018
1019
1020
1021
1022
1023
1024
1025
1026
1027
1028
1029
1030
1031
1032
1033
1034
1035
1036
1037
1038
1039
1040
1041
1042
1043
1044
1045
1046
1047
1048
1049
1050
1051
1052
1053
1054
1055
1056
1057
1058
1059
1060
1061
1062
1063
1064
1065
1066
1067
1068
1069
1070
1071
1072
1073
1074
1075
1076
1077
1078
1079
1080
1081
1082
1083
1084
1085
1086
1087
1088
1089
1090
1091
1092
1093
1094
1095
1096
1097
1098
1099
1100
1101
1102
1103
1104
1105
1106
1107
1108
1109
1110
1111
1112
1113
1114
1115
1116
1117
1118
1119
1120
1121
1122
1123
1124
1125
1126
1127
1128
1129
1130
1131
1132
1133
1134
1135
1136
1137
1138
1139
1140
1141
1142
1143
1144
1145
1146
1147
1148
1149
1150
1151
1152
1153
1154
1155
1156
1157
1158
1159
1160
1161
1162
1163
1164
1165
1166
1167
1168
1169
1170
1171
1172
1173
1174
1175
1176
1177
1178
1179
1180
1181
1182
1183
1184
1185
1186
1187
1188
1189
1190
1191
1192
1193
1194
1195
1196
1197
1198
1199
1200
1201
1202
1203
1204
1205
1206
1207
1208
1209
1210
1211
1212
1213
1214
1215
1216
1217
1218
1219
1220
1221
1222
1223
1224
1225
1226
1227
1228
1229
1230
1231
1232
1233
1234
1235
1236
1237
1238
1239
1240
1241
1242
1243
1244
1245
1246
1247
1248
1249
1250
1251
1252
1253
1254
1255
1256
1257
1258
1259
1260
1261
1262
1263
1264
1265
1266
1267
1268
1269
1270
1271
1272
1273
1274
1275
1276
1277
1278
1279
1280
1281
1282
1283
1284
1285
1286
1287
1288
1289
1290
1291
1292
1293
1294
1295
1296
1297
1298
1299
1300
1301
1302
1303
1304
1305
1306
1307
1308
1309
1310
1311
1312
1313
1314
1315
1316
1317
1318
1319
1320
1321
1322
1323
1324
1325
1326
1327
1328
1329
1330
1331
1332
1333
1334
1335
1336
1337
1338
1339
1340
1341
1342
1343
1344
1345
1346
1347
1348
1349
1350
1351
1352
1353
1354
1355
1356
1357
1358
1359
1360
1361
1362
1363
1364
1365
1366
1367
1368
1369
1370
1371
1372
1373
1374
1375
1376
1377
1378
1379
1380
1381
1382
1383
1384
1385
1386
1387
1388
1389
1390
1391
1392
1393
1394
1395
1396
1397
1398
1399
1400
1401
1402
1403
1404
1405
1406
1407
1408
1409
1410
1411
1412
1413
1414
1415
1416
1417
1418
1419
1420
1421
1422
1423
1424
1425
1426
1427
1428
1429
1430
1431
1432
1433
1434
1435
1436
1437
1438
1439
1440
1441
1442
1443
1444
1445
1446
1447
1448
1449
1450
1451
1452
1453
1454
1455
1456
1457
1458
1459
1460
1461
1462
1463
1464
1465
1466
1467
1468
1469
1470
1471
1472
1473
1474
1475
1476
1477
1478
1479
1480
1481
1482
1483
1484
1485
1486
1487
1488
1489
1490
1491
1492
1493
1494
1495
1496
1497
1498
1499
1500
1501
1502
1503
1504
1505
1506
1507
1508
1509
1510
1511
1512
1513
1514
1515
1516
1517
1518
1519
1520
1521
1522
1523
1524
1525
1526
1527
1528
1529
1530
1531
1532
1533
1534
1535
1536
1537
1538
1539
1540
1541
1542
1543
1544
1545
1546
1547
1548
1549
1550
1551
1552
1553
1554
1555
1556
1557
1558
1559
1560
1561
1562
1563
1564
1565
1566
1567
1568
1569
1570
1571
1572
1573
1574
1575
1576
1577
1578
1579
1580
1581
1582
1583
1584
1585
1586
1587
1588
1589
1590
1591
1592
1593
1594
1595
1596
1597
1598
1599
1600
1601
1602
1603
1604
1605
1606
1607
1608
1609
1610
1611
1612
1613
1614
1615
1616
1617
1618
1619
1620
1621
1622
1623
1624
1625
1626
1627
1628
1629
1630
1631
1632
1633
1634
1635
1636
1637
1638
1639
1640
1641
1642
1643
1644
1645
1646
1647
1648
1649
1650
1651
1652
1653
1654
1655
1656
1657
1658
1659
1660
1661
1662
1663
1664
1665
1666
1667
1668
1669
1670
1671
1672
1673
1674
1675
1676
1677
1678
1679
1680
1681
1682
1683
1684
1685
1686
1687
1688
1689
1690
1691
1692
1693
1694
1695
1696
1697
1698
1699
1700
1701
1702
1703
1704
1705
1706
1707
1708
1709
1710
1711
1712
1713
1714
1715
1716
1717
1718
1719
1720
1721
1722
1723
1724
1725
1726
1727
1728
1729
1730
1731
1732
1733
1734
1735
1736
1737
1738
1739
1740
1741
1742
1743
1744
1745
1746
1747
1748
1749
1750
1751
1752
1753
1754
1755
1756
1757
1758
1759
1760
1761
1762
1763
1764
1765
1766
1767
1768
1769
1770
1771
1772
1773
1774
1775
1776
1777
1778
1779
1780
1781
1782
1783
1784
1785
1786
1787
1788
1789
1790
1791
1792
1793
1794
1795
1796
1797
1798
1799
1800
1801
1802
1803
1804
1805
1806
1807
1808
1809
1810
1811
1812
1813
1814
1815
1816
1817
1818
1819
1820
1821
1822
1823
1824
1825
1826
1827
1828
1829
1830
1831
1832
1833
1834
1835
1836
1837
1838
1839
1840
1841
1842
1843
1844
1845
1846
1847
1848
1849
1850
1851
1852
1853
1854
1855
1856
1857
1858
1859
1860
1861
1862
1863
1864
1865
1866
1867
1868
1869
1870
1871
1872
1873
1874
1875
1876
1877
1878
1879
1880
1881
1882
1883
1884
1885
1886
1887
1888
1889
1890
1891
1892
1893
1894
1895
1896
1897
1898
1899
1900
1901
1902
1903
1904
1905
1906
1907
1908
1909
1910
1911
1912
1913
1914
1915
1916
1917
1918
1919
1920
1921
1922
1923
1924
1925
1926
1927
1928
1929
1930
1931
1932
1933
1934
1935
1936
1937
1938
1939
1940
1941
1942
1943
1944
1945
1946
1947
1948
1949
1950
1951
1952
1953
1954
1955
1956
1957
1958
1959
1960
1961
1962
1963
1964
1965
1966
1967
1968
1969
1970
1971
1972
1973
1974
1975
1976
1977
1978
1979
1980
1981
1982
1983
1984
1985
1986
1987
1988
1989
1990
1991
1992
1993
1994
1995
1996
1997
1998
1999
2000
2001
2002
2003
2004
2005
2006
2007
2008
2009
2010
2011
2012
2013
2014
2015
2016
2017
2018
2019
2020
2021
2022
2023
2024
2025
2026
2027
2028
2029
2030
2031
2032
2033
2034
2035
2036
2037
2038
2039
2040
2041
2042
2043
2044
2045
2046
2047
2048
2049
2050
2051
2052
2053
2054
2055
2056
2057
2058
2059
2060
2061
2062
2063
2064
2065
2066
2067
2068
2069
2070
2071
2072
2073
2074
2075
2076
2077
2078
2079
2080
2081
2082
2083
2084
2085
2086
2087
2088
2089
2090
2091
2092
2093
2094
2095
2096
2097
2098
2099
2100
2101
2102
2103
2104
2105
2106
2107
2108
2109
2110
2111
2112
2113
2114
2115
2116
2117
2118
2119
2120
2121
2122
2123
2124
2125
2126
2127
2128
2129
2130
2131
2132
2133
2134
2135
2136
2137
2138
2139
2140
2141
2142
2143
2144
2145
2146
2147
2148
2149
2150
2151
2152
2153
2154
2155
2156
2157
2158
2159
2160
2161
2162
2163
2164
2165
2166
2167
2168
2169
2170
2171
2172
2173
2174
2175
2176
2177
2178
2179
2180
2181
2182
2183
2184
2185
2186
2187
2188
2189
2190
2191
2192
2193
2194
2195
2196
2197
2198
2199
2200
2201
2202
2203
2204
2205
2206
2207
2208
2209
2210
2211
2212
2213
2214
2215
2216
2217
2218
2219
2220
2221
2222
2223
2224
2225
2226
2227
2228
2229
2230
2231
2232
2233
2234
2235
2236
2237
2238
2239
2240
2241
2242
2243
2244
2245
2246
2247
2248
2249
2250
2251
2252
2253
2254
2255
2256
2257
2258
2259
2260
2261
2262
2263
2264
2265
2266
2267
2268
2269
2270
2271
2272
2273
2274
2275
2276
2277
2278
2279
2280
2281
2282
2283
2284
2285
2286
2287
2288
2289
2290
2291
2292
2293
2294
2295
2296
2297
2298
2299
2300
2301
2302
2303
2304
2305
2306
2307
2308
2309
2310
2311
2312
2313
2314
2315
2316
2317
2318
2319
2320
2321
2322
2323
2324
2325
2326
2327
2328
2329
2330
2331
2332
2333
2334
2335
2336
2337
2338
2339
2340
2341
2342
2343
2344
2345
2346
2347
2348
2349
2350
2351
2352
2353
2354
2355
2356
2357
2358
2359
2360
2361
2362
2363
2364
2365
2366
2367
2368
2369
2370
2371
2372
2373
2374
2375
2376
2377
2378
2379
2380
2381
2382
2383
2384
2385
2386
2387
2388
2389
2390
2391
2392
2393
2394
2395
2396
2397
2398
2399
2400
2401
2402
2403
2404
2405
2406
2407
2408
2409
2410
2411
2412
2413
2414
2415
2416
2417
2418
2419
2420
2421
2422
2423
2424
2425
2426
2427
2428
2429
2430
2431
2432
2433
2434
2435
2436
2437
2438
2439
2440
2441
2442
2443
2444
2445
2446
2447
2448
2449
2450
2451
2452
2453
2454
2455
2456
2457
2458
2459
2460
2461
2462
2463
2464
2465
2466
2467
2468
2469
2470
2471
2472
2473
2474
2475
2476
2477
2478
2479
2480
2481
2482
2483
2484
2485
2486
2487
2488
2489
2490
2491
2492
2493
2494
2495
2496
2497
2498
2499
2500
2501
2502
2503
2504
2505
2506
2507
2508
2509
2510
2511
2512
2513
2514
2515
2516
2517
2518
2519
2520
2521
2522
2523
2524
2525
2526
2527
2528
2529
2530
2531
2532
2533
2534
2535
2536
2537
2538
2539
2540
2541
2542
2543
2544
2545
2546
2547
2548
2549
2550
2551
2552
2553
2554
2555
2556
2557
2558
2559
2560
2561
2562
2563
2564
2565
2566
2567
2568
2569
2570
2571
2572
2573
2574
2575
2576
2577
2578
2579
2580
2581
2582
2583
2584
2585
2586
2587
2588
2589
2590
2591
2592
2593
2594
2595
2596
2597
2598
2599
2600
2601
2602
2603
2604
2605
2606
2607
2608
2609
2610
2611
2612
2613
2614
2615
2616
2617
2618
2619
2620
2621
2622
2623
2624
2625
2626
2627
2628
2629
2630
2631
2632
2633
2634
2635
2636
2637
2638
2639
2640
2641
2642
2643
2644
2645
2646
2647
2648
2649
2650
2651
2652
2653
2654
2655
2656
2657
2658
2659
2660
2661
2662
2663
2664
2665
2666
2667
2668
2669
2670
2671
2672
2673
2674
2675
2676
2677
2678
2679
2680
2681
2682
2683
2684
2685
2686
2687
2688
2689
2690
2691
2692
2693
2694
2695
2696
2697
2698
2699
2700
2701
2702
2703
2704
2705
2706
2707
2708
2709
2710
2711
2712
2713
2714
2715
2716
2717
2718
2719
2720
2721
2722
2723
2724
2725
2726
2727
2728
2729
2730
2731
2732
2733
2734
2735
2736
2737
2738
2739
2740
2741
2742
2743
2744
2745
2746
2747
2748
2749
2750
2751
2752
2753
2754
2755
2756
2757
2758
2759
2760
2761
2762
2763
2764
2765
2766
2767
2768
2769
2770
2771
2772
2773
2774
2775
2776
2777
2778
2779
2780
2781
2782
2783
2784
2785
2786
2787
2788
2789
2790
2791
2792
2793
2794
2795
2796
2797
2798
2799
2800
2801
2802
2803
2804
2805
2806
2807
2808
2809
2810
2811
2812
2813
2814
2815
2816
2817
2818
2819
2820
2821
2822
2823
2824
2825
2826
2827
2828
2829
2830
2831
2832
2833
2834
2835
2836
2837
2838
2839
2840
2841
2842
2843
2844
2845
2846
2847
2848
2849
2850
2851
2852
2853
2854
2855
2856
2857
2858
2859
2860
2861
2862
2863
2864
2865
2866
2867
2868
2869
2870
2871
2872
2873
2874
2875
2876
2877
2878
2879
2880
2881
2882
2883
2884
2885
2886
2887
2888
2889
2890
2891
2892
2893
2894
2895
2896
2897
2898
2899
2900
2901
2902
2903
2904
2905
2906
2907
2908
2909
2910
2911
2912
2913
2914
2915
2916
2917
2918
2919
2920
2921
2922
2923
2924
2925
2926
2927
2928
2929
2930
2931
2932
2933
2934
2935
2936
2937
2938
2939
2940
2941
2942
2943
2944
2945
2946
2947
2948
2949
2950
2951
2952
2953
2954
2955
2956
2957
2958
2959
2960
2961
2962
2963
2964
2965
2966
2967
2968
2969
2970
2971
2972
2973
2974
2975
2976
2977
2978
2979
2980
2981
2982
2983
2984
2985
2986
2987
2988
2989
2990
2991
2992
2993
2994
2995
2996
2997
2998
2999
3000
3001
3002
3003
3004
3005
3006
3007
3008
3009
3010
3011
3012
3013
3014
3015
3016
3017
3018
3019
3020
3021
3022
3023
3024
3025
3026
3027
3028
3029
3030
3031
3032
3033
3034
3035
3036
3037
3038
3039
3040
3041
3042
3043
3044
3045
3046
3047
3048
3049
3050
3051
3052
3053
3054
3055
3056
3057
3058
3059
3060
3061
3062
3063
3064
3065
3066
3067
3068
3069
3070
3071
3072
3073
3074
3075
3076
3077
3078
3079
3080
3081
3082
3083
3084
3085
3086
3087
3088
3089
3090
3091
3092
3093
3094
3095
3096
3097
3098
3099
3100
3101
3102
3103
3104
3105
3106
3107
3108
3109
3110
3111
3112
3113
3114
3115
3116
3117
3118
3119
3120
3121
3122
3123
3124
3125
3126
3127
3128
3129
3130
3131
3132
3133
3134
3135
3136
3137
3138
3139
3140
3141
3142
3143
3144
3145
3146
3147
3148
3149
3150
3151
3152
3153
3154
3155
3156
3157
3158
3159
3160
3161
3162
3163
3164
3165
3166
3167
3168
3169
3170
3171
3172
3173
3174
3175
3176
3177
3178
3179
3180
3181
3182
3183
3184
3185
3186
3187
3188
3189
3190
3191
3192
3193
3194
3195
3196
3197
3198
3199
3200
3201
3202
3203
3204
3205
3206
3207
3208
3209
3210
3211
3212
3213
3214
3215
3216
3217
3218
3219
3220
3221
3222
3223
3224
3225
3226
3227
3228
3229
3230
3231
3232
3233
3234
3235
3236
3237
3238
3239
3240
3241
3242
3243
3244
3245
3246
3247
3248
3249
3250
3251
3252
3253
3254
3255
3256
3257
3258
3259
3260
3261
3262
3263
3264
3265
3266
3267
3268
3269
3270
3271
3272
3273
3274
3275
3276
3277
3278
3279
3280
3281
3282
3283
3284
3285
3286
3287
3288
3289
3290
3291
3292
3293
3294
3295
3296
3297
3298
3299
3300
3301
3302
3303
3304
3305
3306
3307
3308
3309
3310
3311
3312
3313
3314
3315
3316
3317
3318
3319
3320
3321
3322
3323
3324
3325
3326
3327
3328
3329
3330
3331
3332
3333
3334
3335
3336
3337
3338
3339
3340
3341
3342
3343
3344
3345
3346
3347
3348
3349
3350
3351
3352
3353
3354
3355
3356
3357
3358
3359
3360
3361
3362
3363
3364
3365
3366
3367
3368
3369
3370
3371
3372
3373
3374
3375
3376
3377
3378
3379
3380
3381
3382
3383
3384
3385
3386
3387
3388
3389
3390
3391
3392
3393
3394
3395
3396
3397
3398
3399
3400
3401
3402
3403
3404
3405
3406
3407
3408
3409
3410
3411
3412
3413
3414
3415
3416
3417
3418
3419
3420
3421
3422
3423
3424
3425
3426
3427
3428
3429
3430
3431
3432
3433
3434
3435
3436
3437
3438
3439
3440
3441
3442
3443
3444
3445
3446
3447
3448
3449
3450
3451
3452
3453
3454
3455
3456
3457
3458
3459
3460
3461
3462
3463
3464
3465
3466
3467
3468
3469
3470
3471
3472
3473
3474
3475
3476
3477
3478
3479
3480
3481
3482
3483
3484
3485
3486
3487
3488
3489
3490
3491
3492
3493
3494
3495
3496
3497
3498
3499
3500
3501
3502
3503
3504
3505
3506
3507
3508
3509
3510
3511
3512
3513
3514
3515
3516
3517
3518
3519
3520
3521
3522
3523
3524
3525
3526
3527
3528
3529
3530
3531
3532
3533
3534
3535
3536
3537
3538
3539
3540
3541
3542
3543
3544
3545
3546
3547
3548
3549
3550
3551
3552
3553
3554
3555
3556
3557
3558
3559
3560
3561
3562
3563
3564
3565
3566
3567
3568
3569
3570
3571
3572
3573
3574
3575
3576
3577
3578
3579
3580
3581
3582
3583
3584
3585
3586
3587
3588
3589
3590
3591
3592
3593
3594
3595
3596
3597
3598
3599
3600
3601
3602
3603
3604
3605
3606
3607
3608
3609
3610
3611
3612
3613
3614
3615
3616
3617
3618
3619
3620
3621
3622
3623
3624
3625
3626
3627
3628
3629
3630
3631
3632
3633
3634
3635
3636
3637
3638
3639
3640
3641
3642
3643
3644
3645
3646
3647
3648
3649
3650
3651
3652
3653
3654
3655
3656
3657
3658
3659
3660
3661
3662
3663
3664
3665
3666
3667
3668
3669
3670
3671
3672
3673
3674
3675
3676
3677
3678
3679
3680
3681
3682
3683
3684
3685
3686
3687
3688
3689
3690
3691
3692
3693
3694
3695
3696
3697
3698
3699
3700
3701
3702
3703
3704
3705
3706
3707
3708
3709
3710
3711
3712
3713
3714
3715
3716
3717
3718
3719
3720
3721
3722
3723
3724
3725
3726
3727
3728
3729
3730
3731
3732
3733
3734
3735
3736
3737
3738
3739
3740
3741
3742
3743
3744
3745
3746
3747
3748
3749
3750
3751
3752
3753
3754
3755
3756
3757
3758
3759
3760
3761
3762
3763
3764
3765
3766
3767
3768
3769
3770
3771
3772
3773
3774
3775
3776
3777
3778
3779
3780
3781
3782
3783
3784
3785
3786
3787
3788
3789
3790
3791
3792
3793
3794
3795
3796
3797
3798
3799
3800
3801
3802
3803
3804
3805
3806
3807
3808
3809
3810
3811
3812
3813
3814
3815
3816
3817
3818
3819
3820
3821
3822
3823
3824
3825
3826
3827
3828
3829
3830
3831
3832
3833
3834
3835
3836
3837
3838
3839
3840
3841
3842
3843
3844
3845
3846
3847
3848
3849
3850
3851
3852
3853
3854
3855
3856
3857
3858
3859
3860
3861
3862
3863
3864
3865
3866
3867
3868
3869
3870
3871
3872
3873
3874
3875
3876
3877
3878
3879
3880
3881
3882
3883
3884
3885
3886
3887
3888
3889
3890
3891
3892
3893
3894
3895
3896
3897
3898
3899
3900
3901
3902
3903
3904
3905
3906
3907
3908
3909
3910
3911
3912
3913
3914
3915
3916
3917
3918
3919
3920
3921
3922
3923
3924
3925
3926
3927
3928
3929
3930
3931
3932
3933
3934
3935
3936
3937
3938
3939
3940
3941
3942
3943
3944
3945
3946
3947
3948
3949
3950
3951
3952
3953
3954
3955
3956
3957
3958
3959
3960
3961
3962
3963
3964
3965
3966
3967
3968
3969
3970
3971
3972
3973
3974
3975
3976
3977
3978
3979
3980
3981
3982
3983
3984
3985
3986
3987
3988
3989
3990
3991
3992
3993
3994
3995
3996
3997
3998
3999
4000
4001
4002
4003
4004
4005
4006
4007
4008
4009
4010
4011
4012
4013
4014
4015
4016
4017
4018
4019
4020
4021
4022
4023
4024
4025
4026
4027
4028
4029
4030
4031
4032
4033
4034
4035
4036
4037
4038
4039
4040
4041
4042
4043
4044
4045
4046
4047
4048
4049
4050
4051
4052
4053
4054
4055
4056
4057
4058
4059
4060
4061
4062
4063
4064
4065
4066
4067
4068
4069
4070
4071
4072
4073
4074
4075
4076
4077
4078
4079
4080
4081
4082
4083
4084
4085
4086
4087
4088
4089
4090
4091
4092
4093
4094
4095
4096
4097
4098
4099
4100
4101
4102
4103
4104
4105
4106
4107
4108
4109
4110
4111
4112
4113
4114
4115
4116
4117
4118
4119
4120
4121
4122
4123
4124
4125
4126
4127
4128
4129
4130
4131
4132
4133
4134
4135
4136
4137
4138
4139
4140
4141
4142
4143
4144
4145
4146
4147
4148
4149
4150
4151
4152
4153
4154
4155
4156
4157
4158
4159
4160
4161
4162
4163
4164
4165
4166
4167
4168
4169
4170
4171
4172
4173
4174
4175
4176
4177
4178
4179
4180
4181
4182
4183
4184
4185
4186
4187
4188
4189
4190
4191
4192
4193
4194
4195
4196
4197
4198
4199
4200
4201
4202
4203
4204
4205
4206
4207
4208
4209
4210
4211
4212
4213
4214
4215
4216
4217
4218
4219
4220
4221
4222
4223
4224
4225
4226
4227
4228
4229
4230
4231
4232
4233
4234
4235
4236
4237
4238
4239
4240
4241
4242
4243
4244
4245
4246
4247
4248
4249
4250
4251
4252
4253
4254
4255
4256
4257
4258
4259
4260
4261
4262
4263
4264
4265
4266
4267
4268
4269
4270
4271
4272
4273
4274
4275
4276
4277
4278
4279
4280
4281
4282
4283
4284
4285
4286
4287
4288
4289
4290
4291
4292
4293
4294
4295
4296
4297
4298
4299
4300
4301
4302
4303
4304
4305
4306
4307
4308
4309
4310
4311
4312
4313
4314
4315
4316
4317
4318
4319
4320
4321
4322
4323
4324
4325
4326
4327
4328
4329
4330
4331
4332
4333
4334
4335
4336
4337
4338
4339
4340
4341
4342
4343
4344
4345
4346
4347
4348
4349
4350
4351
4352
4353
4354
4355
4356
4357
4358
4359
4360
4361
4362
4363
4364
4365
4366
4367
4368
4369
4370
4371
4372
4373
4374
4375
4376
4377
4378
4379
4380
4381
4382
4383
4384
4385
4386
4387
4388
4389
4390
4391
4392
4393
4394
4395
4396
4397
4398
4399
4400
4401
4402
4403
4404
4405
4406
4407
4408
4409
4410
4411
4412
4413
4414
4415
4416
4417
4418
4419
4420
4421
4422
4423
4424
4425
4426
4427
4428
4429
4430
4431
4432
4433
4434
4435
4436
4437
4438
4439
4440
4441
4442
4443
4444
4445
4446
4447
4448
4449
4450
4451
4452
4453
4454
4455
4456
4457
4458
4459
4460
4461
4462
4463
4464
4465
4466
4467
4468
4469
4470
4471
4472
4473
4474
4475
4476
4477
4478
4479
4480
4481
4482
4483
4484
4485
4486
4487
4488
4489
4490
4491
4492
4493
4494
4495
4496
4497
4498
4499
4500
4501
4502
4503
4504
4505
4506
4507
4508
4509
4510
4511
4512
4513
4514
4515
4516
4517
4518
4519
4520
4521
4522
4523
4524
4525
4526
4527
4528
4529
4530
4531
4532
4533
4534
4535
4536
4537
4538
4539
4540
4541
4542
4543
4544
4545
4546
4547
4548
4549
4550
4551
4552
4553
4554
4555
4556
4557
4558
4559
4560
4561
4562
4563
4564
4565
4566
4567
4568
4569
4570
4571
4572
4573
4574
4575
4576
4577
4578
4579
4580
4581
4582
4583
4584
4585
4586
4587
4588
4589
4590
4591
4592
4593
4594
4595
4596
4597
4598
4599
4600
4601
4602
4603
4604
4605
4606
4607
4608
4609
4610
4611
4612
4613
4614
4615
4616
4617
4618
4619
4620
4621
4622
4623
4624
4625
4626
4627
4628
4629
4630
4631
4632
4633
4634
4635
4636
4637
4638
4639
4640
4641
4642
4643
4644
4645
4646
4647
4648
4649
4650
4651
4652
4653
4654
4655
4656
4657
4658
4659
4660
4661
4662
4663
4664
4665
4666
4667
4668
4669
4670
4671
4672
4673
4674
4675
4676
4677
4678
4679
4680
4681
4682
4683
4684
4685
4686
4687
4688
4689
4690
4691
4692
4693
4694
4695
4696
4697
4698
4699
4700
4701
4702
4703
4704
4705
4706
4707
4708
4709
4710
4711
4712
4713
4714
4715
4716
4717
4718
4719
4720
4721
4722
4723
4724
4725
4726
4727
4728
4729
4730
4731
4732
4733
4734
4735
4736
4737
4738
4739
4740
4741
4742
4743
4744
4745
4746
4747
4748
4749
4750
4751
4752
4753
4754
4755
4756
4757
4758
4759
4760
4761
4762
4763
4764
4765
4766
4767
4768
4769
4770
4771
4772
4773
4774
4775
4776
4777
4778
4779
4780
4781
4782
4783
4784
4785
4786
4787
4788
4789
4790
4791
4792
4793
4794
4795
4796
4797
4798
4799
4800
4801
4802
4803
4804
4805
4806
4807
4808
4809
4810
4811
4812
4813
4814
4815
4816
4817
4818
4819
4820
4821
4822
4823
4824
4825
4826
4827
4828
4829
4830
4831
4832
4833
4834
4835
4836
4837
4838
4839
4840
4841
4842
4843
4844
4845
4846
4847
4848
4849
4850
4851
4852
4853
4854
4855
4856
4857
4858
4859
4860
4861
4862
4863
4864
4865
4866
4867
4868
4869
4870
4871
4872
4873
4874
4875
4876
4877
4878
4879
4880
4881
4882
4883
4884
4885
4886
4887
4888
4889
4890
4891
4892
4893
4894
4895
4896
4897
4898
4899
4900
4901
4902
4903
4904
4905
4906
4907
4908
4909
4910
4911
4912
4913
4914
4915
4916
4917
4918
4919
4920
4921
4922
4923
4924
4925
4926
4927
4928
4929
4930
4931
4932
4933
4934
4935
4936
4937
4938
4939
4940
4941
4942
4943
4944
4945
4946
4947
4948
4949
4950
4951
4952
4953
4954
4955
4956
4957
4958
4959
4960
4961
4962
4963
4964
4965
4966
4967
4968
4969
4970
4971
4972
4973
4974
4975
4976
4977
4978
4979
4980
4981
4982
4983
4984
4985
4986
4987
4988
4989
4990
4991
4992
4993
4994
4995
4996
4997
4998
4999
5000
5001
5002
5003
5004
5005
5006
5007
5008
5009
5010
5011
5012
5013
5014
5015
5016
5017
5018
5019
5020
5021
5022
5023
5024
5025
5026
5027
5028
5029
5030
5031
5032
5033
5034
5035
5036
5037
5038
5039
5040
5041
5042
5043
5044
5045
5046
5047
5048
5049
5050
5051
5052
5053
5054
5055
5056
5057
5058
5059
5060
5061
5062
5063
5064
5065
5066
5067
5068
5069
5070
5071
5072
5073
5074
5075
5076
5077
5078
5079
5080
5081
5082
5083
5084
5085
5086
5087
5088
5089
5090
5091
5092
5093
5094
5095
5096
5097
5098
5099
5100
5101
5102
5103
5104
5105
5106
5107
5108
5109
5110
5111
5112
5113
5114
5115
5116
5117
5118
5119
5120
5121
5122
5123
5124
5125
5126
5127
5128
5129
5130
5131
5132
5133
5134
5135
5136
5137
5138
5139
5140
5141
5142
5143
5144
5145
5146
5147
5148
5149
5150
5151
5152
5153
5154
5155
5156
5157
5158
5159
5160
5161
5162
5163
5164
5165
5166
5167
5168
5169
5170
5171
5172
5173
5174
5175
5176
5177
5178
5179
5180
5181
5182
5183
5184
5185
5186
5187
5188
5189
5190
5191
5192
5193
5194
5195
5196
5197
5198
5199
5200
5201
5202
5203
5204
5205
5206
5207
5208
5209
5210
5211
5212
5213
5214
5215
5216
5217
5218
5219
5220
5221
5222
5223
5224
5225
5226
5227
5228
5229
5230
5231
5232
5233
5234
5235
5236
5237
5238
5239
5240
5241
5242
5243
5244
5245
5246
5247
5248
5249
5250
5251
5252
5253
5254
5255
5256
5257
5258
5259
5260
5261
5262
5263
5264
5265
5266
5267
5268
5269
5270
5271
5272
5273
5274
5275
5276
5277
5278
5279
5280
5281
5282
5283
5284
5285
5286
5287
5288
5289
5290
5291
5292
5293
5294
5295
5296
5297
5298
5299
5300
5301
5302
5303
5304
5305
5306
5307
5308
5309
5310
5311
5312
5313
5314
5315
5316
5317
5318
5319
5320
5321
5322
5323
5324
5325
5326
5327
5328
5329
5330
5331
5332
5333
5334
5335
5336
5337
5338
5339
5340
5341
5342
5343
5344
5345
5346
5347
5348
5349
5350
5351
5352
5353
5354
5355
5356
5357
5358
5359
5360
5361
5362
5363
5364
5365
5366
5367
5368
5369
5370
5371
5372
5373
5374
5375
5376
5377
5378
5379
5380
5381
5382
5383
5384
5385
5386
5387
5388
5389
5390
5391
5392
5393
5394
5395
5396
5397
5398
5399
5400
5401
5402
5403
5404
5405
5406
5407
5408
5409
5410
5411
5412
5413
5414
5415
5416
5417
5418
5419
5420
5421
5422
5423
5424
5425
5426
5427
5428
5429
5430
5431
5432
5433
5434
5435
5436
5437
5438
5439
5440
5441
5442
5443
5444
5445
5446
5447
5448
5449
5450
5451
5452
5453
5454
5455
5456
5457
5458
5459
5460
5461
5462
5463
5464
5465
5466
5467
5468
5469
5470
5471
5472
5473
5474
5475
5476
5477
5478
5479
5480
5481
5482
5483
5484
5485
5486
5487
5488
5489
5490
5491
5492
5493
5494
5495
5496
5497
5498
5499
5500
5501
5502
5503
5504
5505
5506
5507
5508
5509
5510
5511
5512
5513
5514
5515
5516
5517
5518
5519
5520
5521
5522
5523
5524
5525
5526
5527
5528
5529
5530
5531
5532
5533
5534
5535
5536
5537
5538
5539
5540
5541
5542
5543
5544
5545
5546
5547
5548
5549
5550
5551
5552
5553
5554
5555
5556
5557
5558
5559
5560
5561
5562
5563
5564
5565
5566
5567
5568
5569
5570
5571
5572
5573
5574
5575
5576
5577
5578
5579
5580
5581
5582
5583
5584
5585
5586
5587
5588
5589
5590
5591
5592
5593
5594
5595
5596
5597
5598
5599
5600
5601
5602
5603
5604
5605
5606
5607
5608
5609
5610
5611
5612
5613
5614
5615
5616
5617
5618
5619
5620
5621
5622
5623
5624
5625
5626
5627
5628
5629
5630
5631
5632
5633
5634
5635
5636
5637
5638
5639
5640
5641
5642
5643
5644
5645
5646
5647
5648
5649
5650
5651
5652
5653
5654
5655
5656
5657
5658
5659
5660
5661
5662
5663
5664
5665
5666
5667
5668
5669
5670
5671
5672
5673
5674
5675
5676
5677
5678
5679
5680
5681
5682
5683
5684
5685
5686
5687
5688
5689
5690
5691
5692
5693
5694
5695
5696
5697
5698
5699
5700
5701
5702
5703
5704
5705
5706
5707
5708
5709
5710
5711
5712
5713
5714
5715
5716
5717
5718
5719
5720
5721
5722
5723
5724
5725
5726
5727
5728
5729
5730
5731
5732
5733
5734
5735
5736
5737
5738
5739
5740
5741
5742
5743
5744
5745
5746
5747
5748
5749
5750
5751
5752
5753
5754
5755
5756
5757
5758
5759
5760
5761
5762
5763
5764
5765
5766
5767
5768
5769
5770
5771
5772
5773
5774
5775
5776
5777
5778
5779
5780
5781
5782
5783
5784
5785
5786
5787
5788
5789
5790
5791
5792
5793
5794
5795
5796
5797
5798
5799
5800
5801
5802
5803
5804
5805
5806
5807
5808
5809
5810
5811
5812
5813
5814
5815
5816
5817
5818
5819
5820
5821
5822
5823
5824
5825
5826
5827
5828
5829
5830
5831
5832
5833
5834
5835
5836
5837
5838
5839
5840
5841
5842
5843
5844
5845
5846
5847
5848
5849
5850
5851
5852
5853
5854
5855
5856
5857
5858
5859
5860
5861
5862
5863
5864
5865
5866
5867
5868
5869
5870
5871
5872
5873
5874
5875
5876
5877
5878
5879
5880
5881
5882
5883
5884
5885
5886
5887
5888
5889
5890
5891
5892
5893
5894
5895
5896
5897
5898
5899
5900
5901
5902
5903
5904
5905
5906
5907
5908
5909
5910
5911
5912
5913
5914
5915
5916
5917
5918
5919
5920
5921
5922
5923
5924
5925
5926
5927
5928
5929
5930
5931
5932
5933
5934
5935
5936
5937
5938
5939
5940
5941
5942
5943
5944
5945
5946
5947
5948
5949
5950
5951
5952
5953
5954
5955
5956
5957
5958
5959
5960
5961
5962
5963
5964
5965
5966
5967
5968
5969
5970
5971
5972
5973
5974
5975
5976
5977
5978
5979
5980
5981
5982
5983
5984
5985
5986
5987
5988
5989
5990
5991
5992
5993
5994
5995
5996
5997
5998
5999
6000
6001
6002
6003
6004
6005
6006
6007
6008
6009
6010
6011
6012
6013
6014
6015
6016
6017
6018
6019
6020
6021
6022
6023
6024
6025
6026
6027
6028
6029
6030
6031
6032
6033
6034
6035
6036
6037
6038
6039
6040
6041
6042
6043
6044
6045
6046
6047
6048
6049
6050
6051
6052
6053
6054
6055
6056
6057
6058
6059
6060
6061
6062
6063
6064
6065
6066
6067
6068
6069
6070
6071
6072
6073
6074
6075
6076
6077
6078
6079
6080
6081
6082
6083
6084
6085
6086
6087
6088
6089
6090
6091
6092
6093
6094
6095
6096
6097
6098
6099
6100
6101
6102
6103
6104
6105
6106
6107
6108
6109
6110
6111
6112
6113
6114
6115
6116
6117
6118
6119
6120
6121
6122
6123
6124
6125
6126
6127
6128
6129
6130
6131
6132
6133
6134
6135
6136
6137
6138
6139
6140
6141
6142
6143
6144
6145
6146
6147
6148
6149
6150
6151
6152
6153
6154
6155
6156
6157
6158
6159
6160
6161
6162
6163
6164
6165
6166
6167
6168
6169
6170
6171
6172
6173
6174
6175
6176
6177
6178
6179
6180
6181
6182
6183
6184
6185
6186
6187
6188
6189
6190
6191
6192
6193
6194
6195
6196
6197
6198
6199
6200
6201
6202
6203
6204
6205
6206
6207
6208
6209
6210
6211
6212
6213
6214
6215
6216
6217
6218
6219
6220
6221
6222
6223
6224
6225
6226
6227
6228
6229
6230
6231
6232
6233
6234
6235
6236
6237
6238
6239
6240
6241
6242
6243
6244
6245
6246
6247
6248
6249
6250
6251
6252
6253
6254
6255
6256
6257
6258
6259
6260
6261
6262
6263
6264
6265
6266
6267
6268
6269
6270
6271
6272
6273
6274
6275
6276
6277
6278
6279
6280
6281
6282
6283
6284
6285
6286
6287
6288
6289
6290
6291
6292
6293
6294
6295
6296
6297
6298
6299
6300
6301
6302
6303
6304
6305
6306
6307
6308
6309
6310
6311
6312
6313
6314
6315
6316
6317
6318
6319
6320
6321
6322
6323
6324
6325
6326
6327
6328
6329
6330
6331
6332
6333
6334
6335
6336
6337
6338
6339
6340
6341
6342
6343
6344
6345
6346
6347
6348
6349
6350
6351
6352
6353
6354
6355
6356
6357
6358
6359
6360
6361
6362
6363
6364
6365
6366
6367
6368
6369
6370
6371
6372
6373
6374
6375
6376
6377
6378
6379
6380
6381
6382
6383
6384
6385
6386
6387
6388
6389
6390
6391
6392
6393
6394
6395
6396
6397
6398
6399
6400
6401
6402
6403
6404
6405
6406
6407
6408
6409
6410
6411
6412
6413
6414
6415
6416
6417
6418
6419
6420
6421
6422
6423
6424
6425
6426
6427
6428
6429
6430
6431
6432
6433
6434
6435
6436
6437
6438
6439
6440
6441
6442
6443
6444
6445
6446
6447
6448
6449
6450
6451
6452
6453
6454
6455
6456
6457
6458
6459
6460
6461
6462
6463
6464
6465
6466
6467
6468
6469
6470
6471
6472
6473
6474
6475
6476
6477
6478
6479
6480
6481
6482
6483
6484
6485
6486
6487
6488
6489
6490
6491
6492
6493
6494
6495
6496
6497
6498
6499
6500
6501
6502
6503
6504
6505
6506
6507
6508
6509
6510
6511
6512
6513
6514
6515
6516
6517
6518
6519
6520
6521
6522
6523
6524
6525
6526
6527
6528
6529
6530
6531
6532
6533
6534
6535
6536
6537
6538
6539
6540
6541
6542
6543
6544
6545
6546
6547
6548
6549
6550
6551
6552
6553
6554
6555
6556
6557
6558
6559
6560
6561
6562
6563
6564
6565
6566
6567
6568
6569
6570
6571
6572
6573
6574
6575
6576
6577
6578
6579
6580
6581
6582
6583
6584
6585
6586
6587
6588
6589
6590
6591
6592
6593
6594
6595
6596
6597
6598
6599
6600
6601
6602
6603
6604
6605
6606
6607
6608
6609
6610
6611
6612
6613
6614
6615
6616
6617
6618
6619
6620
6621
6622
6623
6624
6625
6626
6627
6628
6629
6630
6631
6632
6633
6634
6635
6636
6637
6638
6639
6640
6641
6642
6643
6644
6645
6646
6647
6648
6649
6650
6651
6652
6653
6654
6655
6656
6657
6658
6659
6660
6661
6662
6663
6664
6665
6666
6667
6668
6669
6670
6671
6672
6673
6674
6675
6676
6677
6678
6679
6680
6681
6682
6683
6684
6685
6686
6687
6688
6689
6690
6691
6692
6693
6694
6695
6696
6697
6698
6699
6700
6701
6702
6703
6704
6705
6706
6707
6708
6709
6710
6711
6712
6713
6714
6715
6716
6717
6718
6719
6720
6721
6722
6723
6724
6725
6726
6727
6728
6729
6730
6731
6732
6733
6734
6735
6736
6737
6738
6739
6740
6741
6742
6743
6744
6745
6746
6747
6748
6749
6750
6751
6752
6753
6754
6755
6756
6757
6758
6759
6760
6761
6762
6763
6764
6765
6766
6767
6768
6769
6770
6771
6772
6773
6774
6775
6776
6777
6778
6779
6780
6781
6782
6783
6784
6785
6786
6787
6788
6789
6790
6791
6792
6793
6794
6795
6796
6797
6798
6799
6800
6801
6802
6803
6804
6805
6806
6807
6808
6809
6810
6811
6812
6813
6814
6815
6816
6817
6818
6819
6820
6821
6822
6823
6824
6825
6826
6827
6828
6829
6830
6831
6832
6833
6834
6835
6836
6837
6838
6839
6840
6841
6842
6843
6844
6845
6846
6847
6848
6849
6850
6851
6852
6853
6854
6855
6856
6857
6858
6859
6860
6861
6862
6863
6864
6865
6866
6867
6868
6869
6870
6871
6872
6873
6874
6875
6876
6877
6878
6879
6880
6881
6882
6883
6884
6885
6886
6887
6888
6889
6890
6891
6892
6893
6894
6895
6896
6897
6898
6899
6900
6901
6902
6903
6904
6905
6906
6907
6908
6909
6910
6911
6912
6913
6914
6915
6916
6917
6918
6919
6920
6921
6922
6923
6924
6925
6926
6927
6928
6929
6930
6931
6932
6933
6934
6935
6936
6937
6938
6939
6940
6941
6942
6943
6944
6945
6946
6947
6948
6949
6950
6951
6952
6953
6954
6955
6956
6957
6958
6959
6960
6961
6962
6963
6964
6965
6966
6967
6968
6969
6970
6971
6972
6973
6974
6975
6976
6977
6978
6979
6980
6981
6982
6983
6984
6985
6986
6987
6988
6989
6990
6991
6992
6993
6994
6995
6996
6997
6998
6999
7000
7001
7002
7003
7004
7005
7006
7007
7008
7009
7010
7011
7012
7013
7014
7015
7016
7017
7018
7019
7020
7021
7022
7023
7024
7025
7026
7027
7028
7029
7030
7031
7032
7033
7034
7035
7036
7037
7038
7039
7040
7041
7042
7043
7044
7045
7046
7047
7048
7049
7050
7051
7052
7053
7054
7055
7056
7057
7058
7059
7060
7061
7062
7063
7064
7065
7066
7067
7068
7069
7070
7071
7072
7073
7074
7075
7076
7077
7078
7079
7080
7081
7082
7083
7084
7085
7086
7087
7088
7089
7090
7091
7092
7093
7094
7095
7096
7097
7098
7099
7100
7101
7102
7103
7104
7105
7106
7107
7108
7109
7110
7111
7112
7113
7114
7115
7116
7117
7118
7119
7120
7121
7122
7123
7124
7125
7126
7127
7128
7129
7130
7131
7132
7133
7134
7135
7136
7137
7138
7139
7140
7141
7142
7143
7144
7145
7146
7147
7148
7149
7150
7151
7152
7153
7154
7155
7156
7157
7158
7159
7160
7161
7162
7163
7164
7165
7166
7167
7168
7169
7170
7171
7172
7173
7174
7175
7176
7177
7178
7179
7180
7181
7182
7183
7184
7185
7186
7187
7188
7189
7190
7191
7192
7193
7194
7195
7196
7197
7198
7199
7200
7201
7202
7203
7204
7205
7206
7207
7208
7209
7210
7211
7212
7213
7214
7215
7216
7217
7218
7219
7220
7221
7222
7223
7224
7225
7226
7227
7228
7229
7230
7231
7232
7233
7234
7235
7236
7237
7238
7239
7240
7241
7242
7243
7244
7245
7246
7247
7248
7249
7250
7251
7252
7253
7254
7255
7256
7257
7258
7259
7260
7261
7262
7263
7264
7265
7266
7267
7268
7269
7270
7271
7272
7273
7274
7275
7276
7277
7278
7279
7280
7281
7282
7283
7284
7285
7286
7287
7288
7289
7290
7291
7292
7293
7294
7295
7296
7297
7298
7299
7300
7301
7302
7303
7304
7305
7306
7307
7308
7309
7310
7311
7312
7313
7314
7315
7316
7317
7318
7319
7320
7321
7322
7323
7324
7325
7326
7327
7328
7329
7330
7331
7332
7333
7334
7335
7336
7337
7338
7339
7340
7341
7342
7343
7344
7345
7346
7347
7348
7349
7350
7351
7352
7353
7354
7355
7356
7357
7358
7359
7360
7361
7362
7363
7364
7365
7366
7367
7368
7369
7370
7371
7372
7373
7374
7375
7376
7377
7378
7379
7380
7381
7382
7383
7384
7385
7386
7387
7388
7389
7390
7391
7392
7393
7394
7395
7396
7397
7398
7399
7400
7401
7402
7403
7404
7405
7406
7407
7408
7409
7410
7411
7412
7413
7414
7415
7416
7417
7418
7419
7420
7421
7422
7423
7424
7425
7426
7427
7428
7429
7430
7431
7432
7433
7434
7435
7436
7437
7438
7439
7440
7441
7442
7443
7444
7445
7446
7447
7448
7449
7450
7451
7452
7453
7454
7455
7456
7457
7458
7459
7460
7461
7462
7463
7464
7465
7466
7467
7468
7469
7470
7471
7472
7473
7474
7475
7476
7477
7478
7479
7480
7481
7482
7483
7484
7485
7486
7487
7488
7489
7490
7491
7492
7493
7494
7495
7496
7497
7498
7499
7500
7501
7502
7503
7504
7505
7506
7507
7508
7509
7510
7511
7512
7513
7514
7515
7516
7517
7518
7519
7520
7521
7522
7523
7524
7525
7526
7527
7528
7529
7530
7531
7532
7533
7534
7535
7536
7537
7538
7539
7540
7541
7542
7543
7544
7545
7546
7547
7548
7549
7550
7551
7552
7553
7554
7555
7556
7557
7558
7559
7560
7561
7562
7563
7564
7565
7566
7567
7568
7569
7570
7571
7572
7573
7574
7575
7576
7577
7578
7579
7580
7581
7582
7583
7584
7585
7586
7587
7588
7589
7590
7591
7592
7593
7594
7595
7596
7597
7598
7599
7600
7601
7602
7603
7604
7605
7606
7607
7608
7609
7610
7611
7612
7613
7614
7615
7616
7617
7618
7619
7620
7621
7622
7623
7624
7625
7626
7627
7628
7629
7630
7631
7632
7633
7634
7635
7636
7637
7638
7639
7640
7641
7642
7643
7644
7645
7646
7647
7648
7649
7650
7651
7652
7653
7654
7655
7656
7657
7658
7659
7660
7661
7662
7663
7664
7665
7666
7667
7668
7669
7670
7671
7672
7673
7674
7675
7676
7677
7678
7679
7680
7681
7682
7683
7684
7685
7686
7687
7688
7689
7690
7691
7692
7693
7694
7695
7696
7697
7698
7699
7700
7701
7702
7703
7704
7705
7706
7707
7708
7709
7710
7711
7712
7713
7714
7715
7716
7717
7718
7719
7720
7721
7722
7723
7724
7725
7726
7727
7728
7729
7730
7731
7732
7733
7734
7735
7736
7737
7738
7739
7740
7741
7742
7743
7744
7745
7746
7747
7748
7749
7750
7751
7752
7753
7754
7755
7756
7757
7758
7759
7760
7761
7762
7763
7764
7765
7766
7767
7768
7769
7770
7771
7772
7773
7774
7775
7776
7777
7778
7779
7780
7781
7782
7783
7784
7785
7786
7787
7788
7789
7790
7791
7792
7793
7794
7795
7796
7797
7798
7799
7800
7801
7802
7803
7804
7805
7806
7807
7808
7809
7810
7811
7812
7813
7814
7815
7816
7817
7818
7819
7820
7821
7822
7823
7824
7825
7826
7827
7828
7829
7830
7831
7832
7833
7834
7835
7836
7837
7838
7839
7840
7841
7842
7843
7844
7845
7846
7847
7848
7849
7850
7851
7852
7853
7854
7855
7856
7857
7858
7859
7860
7861
7862
7863
7864
7865
7866
7867
7868
7869
7870
7871
7872
7873
7874
7875
7876
7877
7878
7879
7880
7881
7882
7883
7884
7885
7886
7887
7888
7889
|
// std lib related includes
#include <tuple>
// pybind 11 related includes
#include <pybind11/pybind11.h>
#include <pybind11/stl.h>
namespace py = pybind11;
// Standard Handle
#include <Standard_Handle.hxx>
// includes to resolve forward declarations
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <gp_Pnt.hxx>
#include <gp_Dir.hxx>
#include <gp_Ax1.hxx>
#include <gp_Ax2.hxx>
#include <gp_Pnt2d.hxx>
#include <gp_Dir2d.hxx>
#include <gp_Ax2d.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <gp_Ax2.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <gp_Ax1.hxx>
#include <gp_Ax2.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <gp_XYZ.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <gp_XY.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <gp_Ax1.hxx>
#include <gp_Ax2.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <gp_Ax1.hxx>
#include <gp_Ax2.hxx>
#include <gp_Quaternion.hxx>
#include <gp_Ax3.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <gp_Ax1.hxx>
#include <gp_Ax2.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
// module includes
#include <gp.hxx>
#include <gp_Ax1.hxx>
#include <gp_Ax2.hxx>
#include <gp_Ax22d.hxx>
#include <gp_Ax2d.hxx>
#include <gp_Ax3.hxx>
#include <gp_Circ.hxx>
#include <gp_Circ2d.hxx>
#include <gp_Cone.hxx>
#include <gp_Cylinder.hxx>
#include <gp_Dir.hxx>
#include <gp_Dir2d.hxx>
#include <gp_Elips.hxx>
#include <gp_Elips2d.hxx>
#include <gp_EulerSequence.hxx>
#include <gp_GTrsf.hxx>
#include <gp_GTrsf2d.hxx>
#include <gp_Hypr.hxx>
#include <gp_Hypr2d.hxx>
#include <gp_Lin.hxx>
#include <gp_Lin2d.hxx>
#include <gp_Mat.hxx>
#include <gp_Mat2d.hxx>
#include <gp_Parab.hxx>
#include <gp_Parab2d.hxx>
#include <gp_Pln.hxx>
#include <gp_Pnt.hxx>
#include <gp_Pnt2d.hxx>
#include <gp_Quaternion.hxx>
#include <gp_QuaternionNLerp.hxx>
#include <gp_QuaternionSLerp.hxx>
#include <gp_Sphere.hxx>
#include <gp_Torus.hxx>
#include <gp_Trsf.hxx>
#include <gp_Trsf2d.hxx>
#include <gp_TrsfForm.hxx>
#include <gp_TrsfNLerp.hxx>
#include <gp_Vec.hxx>
#include <gp_Vec2d.hxx>
#include <gp_Vec2f.hxx>
#include <gp_Vec3f.hxx>
#include <gp_VectorWithNullMagnitude.hxx>
#include <gp_XY.hxx>
#include <gp_XYZ.hxx>
// template related includes
// ./opencascade/gp_Vec2f.hxx
#include "NCollection_tmpl.hxx"
// ./opencascade/gp_Vec3f.hxx
#include "NCollection_tmpl.hxx"
// user-defined pre
#include "OCP_specific.inc"
// user-defined inclusion per module
// Module definiiton
void register_gp(py::module &main_module) {
py::module m = static_cast<py::module>(main_module.attr("gp"));
py::object klass;
//Python trampoline classes
// classes
// Class NCollection_Lerp<gp_Trsf> from ./opencascade/gp_TrsfNLerp.hxx
klass = m.attr("NCollection_Lerp_gp_Trsf");
// nested enums
static_cast<py::class_<NCollection_Lerp<gp_Trsf> , shared_ptr<NCollection_Lerp<gp_Trsf>> >>(klass)
// constructors
.def(py::init< >() )
.def(py::init< const gp_Trsf &,const gp_Trsf & >() , py::arg("theStart"), py::arg("theEnd") )
// custom constructors
// methods
.def("Init",
(void (NCollection_Lerp<gp_Trsf>::*)( const gp_Trsf & , const gp_Trsf & ) ) static_cast<void (NCollection_Lerp<gp_Trsf>::*)( const gp_Trsf & , const gp_Trsf & ) >(&NCollection_Lerp<gp_Trsf>::Init),
R"#(Initialize values.)#" , py::arg("theStart"), py::arg("theEnd")
)
.def("Interpolate",
(void (NCollection_Lerp<gp_Trsf>::*)( double , gp_Trsf & ) const) static_cast<void (NCollection_Lerp<gp_Trsf>::*)( double , gp_Trsf & ) const>(&NCollection_Lerp<gp_Trsf>::Interpolate),
R"#(Compute interpolated value between two values.)#" , py::arg("theT"), py::arg("theResult")
)
// methods using call by reference i.s.o. return
// static methods
// static methods using call by reference i.s.o. return
// operators
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
;
// Class gp from ./opencascade/gp.hxx
klass = m.attr("gp");
// default constructor
register_default_constructor<gp , shared_ptr<gp>>(m,"gp");
// nested enums
static_cast<py::class_<gp , shared_ptr<gp> >>(klass)
// constructors
// custom constructors
// methods
// methods using call by reference i.s.o. return
// static methods
.def_static("Resolution_s",
(Standard_Real (*)() ) static_cast<Standard_Real (*)() >(&gp::Resolution),
R"#(Method of package gp)#"
)
.def_static("Origin_s",
(const gp_Pnt & (*)() ) static_cast<const gp_Pnt & (*)() >(&gp::Origin),
R"#(Identifies a Cartesian point with coordinates X = Y = Z = 0.0.0)#"
)
.def_static("DX_s",
(const gp_Dir & (*)() ) static_cast<const gp_Dir & (*)() >(&gp::DX),
R"#(Returns a unit vector with the combination (1,0,0))#"
)
.def_static("DY_s",
(const gp_Dir & (*)() ) static_cast<const gp_Dir & (*)() >(&gp::DY),
R"#(Returns a unit vector with the combination (0,1,0))#"
)
.def_static("DZ_s",
(const gp_Dir & (*)() ) static_cast<const gp_Dir & (*)() >(&gp::DZ),
R"#(Returns a unit vector with the combination (0,0,1))#"
)
.def_static("OX_s",
(const gp_Ax1 & (*)() ) static_cast<const gp_Ax1 & (*)() >(&gp::OX),
R"#(Identifies an axis where its origin is Origin and its unit vector coordinates X = 1.0, Y = Z = 0.0)#"
)
.def_static("OY_s",
(const gp_Ax1 & (*)() ) static_cast<const gp_Ax1 & (*)() >(&gp::OY),
R"#(Identifies an axis where its origin is Origin and its unit vector coordinates Y = 1.0, X = Z = 0.0)#"
)
.def_static("OZ_s",
(const gp_Ax1 & (*)() ) static_cast<const gp_Ax1 & (*)() >(&gp::OZ),
R"#(Identifies an axis where its origin is Origin and its unit vector coordinates Z = 1.0, Y = X = 0.0)#"
)
.def_static("XOY_s",
(const gp_Ax2 & (*)() ) static_cast<const gp_Ax2 & (*)() >(&gp::XOY),
R"#(Identifies a coordinate system where its origin is Origin, and its "main Direction" and "X Direction" coordinates Z = 1.0, X = Y =0.0 and X direction coordinates X = 1.0, Y = Z = 0.0)#"
)
.def_static("ZOX_s",
(const gp_Ax2 & (*)() ) static_cast<const gp_Ax2 & (*)() >(&gp::ZOX),
R"#(Identifies a coordinate system where its origin is Origin, and its "main Direction" and "X Direction" coordinates Y = 1.0, X = Z =0.0 and X direction coordinates Z = 1.0, X = Y = 0.0)#"
)
.def_static("YOZ_s",
(const gp_Ax2 & (*)() ) static_cast<const gp_Ax2 & (*)() >(&gp::YOZ),
R"#(Identifies a coordinate system where its origin is Origin, and its "main Direction" and "X Direction" coordinates X = 1.0, Z = Y =0.0 and X direction coordinates Y = 1.0, X = Z = 0.0 In 2D space)#"
)
.def_static("Origin2d_s",
(const gp_Pnt2d & (*)() ) static_cast<const gp_Pnt2d & (*)() >(&gp::Origin2d),
R"#(Identifies a Cartesian point with coordinates X = Y = 0.0)#"
)
.def_static("DX2d_s",
(const gp_Dir2d & (*)() ) static_cast<const gp_Dir2d & (*)() >(&gp::DX2d),
R"#(Returns a unit vector with the combinations (1,0))#"
)
.def_static("DY2d_s",
(const gp_Dir2d & (*)() ) static_cast<const gp_Dir2d & (*)() >(&gp::DY2d),
R"#(Returns a unit vector with the combinations (0,1))#"
)
.def_static("OX2d_s",
(const gp_Ax2d & (*)() ) static_cast<const gp_Ax2d & (*)() >(&gp::OX2d),
R"#(Identifies an axis where its origin is Origin2d and its unit vector coordinates are: X = 1.0, Y = 0.0)#"
)
.def_static("OY2d_s",
(const gp_Ax2d & (*)() ) static_cast<const gp_Ax2d & (*)() >(&gp::OY2d),
R"#(Identifies an axis where its origin is Origin2d and its unit vector coordinates are Y = 1.0, X = 0.0)#"
)
// static methods using call by reference i.s.o. return
// operators
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
;
// Class gp_Ax1 from ./opencascade/gp_Ax1.hxx
klass = m.attr("gp_Ax1");
// nested enums
static_cast<py::class_<gp_Ax1 , shared_ptr<gp_Ax1> >>(klass)
// constructors
.def(py::init< >() )
.def(py::init< const gp_Pnt &,const gp_Dir & >() , py::arg("theP"), py::arg("theV") )
// custom constructors
// methods
.def("SetDirection",
(void (gp_Ax1::*)( const gp_Dir & ) ) static_cast<void (gp_Ax1::*)( const gp_Dir & ) >(&gp_Ax1::SetDirection),
R"#(Assigns V as the "Direction" of this axis.)#" , py::arg("theV")
)
.def("SetLocation",
(void (gp_Ax1::*)( const gp_Pnt & ) ) static_cast<void (gp_Ax1::*)( const gp_Pnt & ) >(&gp_Ax1::SetLocation),
R"#(Assigns P as the origin of this axis.)#" , py::arg("theP")
)
.def("IsCoaxial",
(Standard_Boolean (gp_Ax1::*)( const gp_Ax1 & , const Standard_Real , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Ax1::*)( const gp_Ax1 & , const Standard_Real , const Standard_Real ) const>(&gp_Ax1::IsCoaxial),
R"#(Returns True if : . the angle between <me> and <Other> is lower or equal to <AngularTolerance> and . the distance between <me>.Location() and <Other> is lower or equal to <LinearTolerance> and . the distance between <Other>.Location() and <me> is lower or equal to LinearTolerance.)#" , py::arg("Other"), py::arg("AngularTolerance"), py::arg("LinearTolerance")
)
.def("IsNormal",
(Standard_Boolean (gp_Ax1::*)( const gp_Ax1 & , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Ax1::*)( const gp_Ax1 & , const Standard_Real ) const>(&gp_Ax1::IsNormal),
R"#(Returns True if the direction of this and another axis are normal to each other. That is, if the angle between the two axes is equal to Pi/2. Note: the tolerance criterion is given by theAngularTolerance.)#" , py::arg("theOther"), py::arg("theAngularTolerance")
)
.def("IsOpposite",
(Standard_Boolean (gp_Ax1::*)( const gp_Ax1 & , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Ax1::*)( const gp_Ax1 & , const Standard_Real ) const>(&gp_Ax1::IsOpposite),
R"#(Returns True if the direction of this and another axis are parallel with opposite orientation. That is, if the angle between the two axes is equal to Pi. Note: the tolerance criterion is given by theAngularTolerance.)#" , py::arg("theOther"), py::arg("theAngularTolerance")
)
.def("IsParallel",
(Standard_Boolean (gp_Ax1::*)( const gp_Ax1 & , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Ax1::*)( const gp_Ax1 & , const Standard_Real ) const>(&gp_Ax1::IsParallel),
R"#(Returns True if the direction of this and another axis are parallel with same orientation or opposite orientation. That is, if the angle between the two axes is equal to 0 or Pi. Note: the tolerance criterion is given by theAngularTolerance.)#" , py::arg("theOther"), py::arg("theAngularTolerance")
)
.def("Angle",
(Standard_Real (gp_Ax1::*)( const gp_Ax1 & ) const) static_cast<Standard_Real (gp_Ax1::*)( const gp_Ax1 & ) const>(&gp_Ax1::Angle),
R"#(Computes the angular value, in radians, between this.Direction() and theOther.Direction(). Returns the angle between 0 and 2*PI radians.)#" , py::arg("theOther")
)
.def("Reverse",
(void (gp_Ax1::*)() ) static_cast<void (gp_Ax1::*)() >(&gp_Ax1::Reverse),
R"#(Reverses the unit vector of this axis and assigns the result to this axis.)#"
)
.def("Reversed",
(gp_Ax1 (gp_Ax1::*)() const) static_cast<gp_Ax1 (gp_Ax1::*)() const>(&gp_Ax1::Reversed),
R"#(Reverses the unit vector of this axis and creates a new one.)#"
)
.def("Mirror",
(void (gp_Ax1::*)( const gp_Pnt & ) ) static_cast<void (gp_Ax1::*)( const gp_Pnt & ) >(&gp_Ax1::Mirror),
R"#(Performs the symmetrical transformation of an axis placement with respect to the point P which is the center of the symmetry and assigns the result to this axis.)#" , py::arg("P")
)
.def("Mirrored",
(gp_Ax1 (gp_Ax1::*)( const gp_Pnt & ) const) static_cast<gp_Ax1 (gp_Ax1::*)( const gp_Pnt & ) const>(&gp_Ax1::Mirrored),
R"#(Performs the symmetrical transformation of an axis placement with respect to the point P which is the center of the symmetry and creates a new axis.)#" , py::arg("P")
)
.def("Mirror",
(void (gp_Ax1::*)( const gp_Ax1 & ) ) static_cast<void (gp_Ax1::*)( const gp_Ax1 & ) >(&gp_Ax1::Mirror),
R"#(Performs the symmetrical transformation of an axis placement with respect to an axis placement which is the axis of the symmetry and assigns the result to this axis.)#" , py::arg("A1")
)
.def("Mirrored",
(gp_Ax1 (gp_Ax1::*)( const gp_Ax1 & ) const) static_cast<gp_Ax1 (gp_Ax1::*)( const gp_Ax1 & ) const>(&gp_Ax1::Mirrored),
R"#(Performs the symmetrical transformation of an axis placement with respect to an axis placement which is the axis of the symmetry and creates a new axis.)#" , py::arg("A1")
)
.def("Mirror",
(void (gp_Ax1::*)( const gp_Ax2 & ) ) static_cast<void (gp_Ax1::*)( const gp_Ax2 & ) >(&gp_Ax1::Mirror),
R"#(Performs the symmetrical transformation of an axis placement with respect to a plane. The axis placement <A2> locates the plane of the symmetry : (Location, XDirection, YDirection) and assigns the result to this axis.)#" , py::arg("A2")
)
.def("Mirrored",
(gp_Ax1 (gp_Ax1::*)( const gp_Ax2 & ) const) static_cast<gp_Ax1 (gp_Ax1::*)( const gp_Ax2 & ) const>(&gp_Ax1::Mirrored),
R"#(Performs the symmetrical transformation of an axis placement with respect to a plane. The axis placement <A2> locates the plane of the symmetry : (Location, XDirection, YDirection) and creates a new axis.)#" , py::arg("A2")
)
.def("Rotate",
(void (gp_Ax1::*)( const gp_Ax1 & , const Standard_Real ) ) static_cast<void (gp_Ax1::*)( const gp_Ax1 & , const Standard_Real ) >(&gp_Ax1::Rotate),
R"#(Rotates this axis at an angle theAngRad (in radians) about the axis theA1 and assigns the result to this axis.)#" , py::arg("theA1"), py::arg("theAngRad")
)
.def("Rotated",
(gp_Ax1 (gp_Ax1::*)( const gp_Ax1 & , const Standard_Real ) const) static_cast<gp_Ax1 (gp_Ax1::*)( const gp_Ax1 & , const Standard_Real ) const>(&gp_Ax1::Rotated),
R"#(Rotates this axis at an angle theAngRad (in radians) about the axis theA1 and creates a new one.)#" , py::arg("theA1"), py::arg("theAngRad")
)
.def("Scale",
(void (gp_Ax1::*)( const gp_Pnt & , const Standard_Real ) ) static_cast<void (gp_Ax1::*)( const gp_Pnt & , const Standard_Real ) >(&gp_Ax1::Scale),
R"#(Applies a scaling transformation to this axis with: - scale factor theS, and - center theP and assigns the result to this axis.)#" , py::arg("theP"), py::arg("theS")
)
.def("Scaled",
(gp_Ax1 (gp_Ax1::*)( const gp_Pnt & , const Standard_Real ) const) static_cast<gp_Ax1 (gp_Ax1::*)( const gp_Pnt & , const Standard_Real ) const>(&gp_Ax1::Scaled),
R"#(Applies a scaling transformation to this axis with: - scale factor theS, and - center theP and creates a new axis.)#" , py::arg("theP"), py::arg("theS")
)
.def("Transform",
(void (gp_Ax1::*)( const gp_Trsf & ) ) static_cast<void (gp_Ax1::*)( const gp_Trsf & ) >(&gp_Ax1::Transform),
R"#(Applies the transformation theT to this axis and assigns the result to this axis.)#" , py::arg("theT")
)
.def("Transformed",
(gp_Ax1 (gp_Ax1::*)( const gp_Trsf & ) const) static_cast<gp_Ax1 (gp_Ax1::*)( const gp_Trsf & ) const>(&gp_Ax1::Transformed),
R"#(Applies the transformation theT to this axis and creates a new one.)#" , py::arg("theT")
)
.def("Translate",
(void (gp_Ax1::*)( const gp_Vec & ) ) static_cast<void (gp_Ax1::*)( const gp_Vec & ) >(&gp_Ax1::Translate),
R"#(Translates this axis by the vector theV, and assigns the result to this axis.)#" , py::arg("theV")
)
.def("Translated",
(gp_Ax1 (gp_Ax1::*)( const gp_Vec & ) const) static_cast<gp_Ax1 (gp_Ax1::*)( const gp_Vec & ) const>(&gp_Ax1::Translated),
R"#(Translates this axis by the vector theV, and creates a new one.)#" , py::arg("theV")
)
.def("Translate",
(void (gp_Ax1::*)( const gp_Pnt & , const gp_Pnt & ) ) static_cast<void (gp_Ax1::*)( const gp_Pnt & , const gp_Pnt & ) >(&gp_Ax1::Translate),
R"#(Translates this axis by: the vector (theP1, theP2) defined from point theP1 to point theP2. and assigns the result to this axis.)#" , py::arg("theP1"), py::arg("theP2")
)
.def("Translated",
(gp_Ax1 (gp_Ax1::*)( const gp_Pnt & , const gp_Pnt & ) const) static_cast<gp_Ax1 (gp_Ax1::*)( const gp_Pnt & , const gp_Pnt & ) const>(&gp_Ax1::Translated),
R"#(Translates this axis by: the vector (theP1, theP2) defined from point theP1 to point theP2. and creates a new one.)#" , py::arg("theP1"), py::arg("theP2")
)
.def("DumpJson",
(void (gp_Ax1::*)( std::ostream & , Standard_Integer ) const) static_cast<void (gp_Ax1::*)( std::ostream & , Standard_Integer ) const>(&gp_Ax1::DumpJson),
R"#(Dumps the content of me into the stream)#" , py::arg("theOStream"), py::arg("theDepth")=static_cast<Standard_Integer>(- 1)
)
.def("InitFromJson",
(Standard_Boolean (gp_Ax1::*)( const std::stringstream & , Standard_Integer & ) ) static_cast<Standard_Boolean (gp_Ax1::*)( const std::stringstream & , Standard_Integer & ) >(&gp_Ax1::InitFromJson),
R"#(Inits the content of me from the stream)#" , py::arg("theSStream"), py::arg("theStreamPos")
)
// methods using call by reference i.s.o. return
// static methods
// static methods using call by reference i.s.o. return
// operators
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
.def("Direction",
(const gp_Dir & (gp_Ax1::*)() const) static_cast<const gp_Dir & (gp_Ax1::*)() const>(&gp_Ax1::Direction),
R"#(Returns the direction of <me>.)#"
)
.def("Location",
(const gp_Pnt & (gp_Ax1::*)() const) static_cast<const gp_Pnt & (gp_Ax1::*)() const>(&gp_Ax1::Location),
R"#(Returns the location point of <me>.)#"
)
;
// Class gp_Ax2 from ./opencascade/gp_Ax2.hxx
klass = m.attr("gp_Ax2");
// nested enums
static_cast<py::class_<gp_Ax2 , shared_ptr<gp_Ax2> >>(klass)
// constructors
.def(py::init< >() )
.def(py::init< const gp_Pnt &,const gp_Dir &,const gp_Dir & >() , py::arg("P"), py::arg("N"), py::arg("Vx") )
.def(py::init< const gp_Pnt &,const gp_Dir & >() , py::arg("P"), py::arg("V") )
// custom constructors
// methods
.def("SetAxis",
(void (gp_Ax2::*)( const gp_Ax1 & ) ) static_cast<void (gp_Ax2::*)( const gp_Ax1 & ) >(&gp_Ax2::SetAxis),
R"#(Assigns the origin and "main Direction" of the axis A1 to this coordinate system, then recomputes its "X Direction" and "Y Direction". Note: The new "X Direction" is computed as follows: new "X Direction" = V1 ^(previous "X Direction" ^ V) where V is the "Direction" of A1. Exceptions Standard_ConstructionError if A1 is parallel to the "X Direction" of this coordinate system.)#" , py::arg("A1")
)
.def("SetDirection",
(void (gp_Ax2::*)( const gp_Dir & ) ) static_cast<void (gp_Ax2::*)( const gp_Dir & ) >(&gp_Ax2::SetDirection),
R"#(Changes the "main Direction" of this coordinate system, then recomputes its "X Direction" and "Y Direction". Note: the new "X Direction" is computed as follows: new "X Direction" = V ^ (previous "X Direction" ^ V) Exceptions Standard_ConstructionError if V is parallel to the "X Direction" of this coordinate system.)#" , py::arg("V")
)
.def("SetLocation",
(void (gp_Ax2::*)( const gp_Pnt & ) ) static_cast<void (gp_Ax2::*)( const gp_Pnt & ) >(&gp_Ax2::SetLocation),
R"#(Changes the "Location" point (origin) of <me>.)#" , py::arg("theP")
)
.def("SetXDirection",
(void (gp_Ax2::*)( const gp_Dir & ) ) static_cast<void (gp_Ax2::*)( const gp_Dir & ) >(&gp_Ax2::SetXDirection),
R"#(Changes the "Xdirection" of <me>. The main direction "Direction" is not modified, the "Ydirection" is modified. If <Vx> is not normal to the main direction then <XDirection> is computed as follows XDirection = Direction ^ (Vx ^ Direction). Exceptions Standard_ConstructionError if Vx or Vy is parallel to the "main Direction" of this coordinate system.)#" , py::arg("theVx")
)
.def("SetYDirection",
(void (gp_Ax2::*)( const gp_Dir & ) ) static_cast<void (gp_Ax2::*)( const gp_Dir & ) >(&gp_Ax2::SetYDirection),
R"#(Changes the "Ydirection" of <me>. The main direction is not modified but the "Xdirection" is changed. If <Vy> is not normal to the main direction then "YDirection" is computed as follows YDirection = Direction ^ (<Vy> ^ Direction). Exceptions Standard_ConstructionError if Vx or Vy is parallel to the "main Direction" of this coordinate system.)#" , py::arg("theVy")
)
.def("Angle",
(Standard_Real (gp_Ax2::*)( const gp_Ax2 & ) const) static_cast<Standard_Real (gp_Ax2::*)( const gp_Ax2 & ) const>(&gp_Ax2::Angle),
R"#(Computes the angular value, in radians, between the main direction of <me> and the main direction of <theOther>. Returns the angle between 0 and PI in radians.)#" , py::arg("theOther")
)
.def("IsCoplanar",
(Standard_Boolean (gp_Ax2::*)( const gp_Ax2 & , const Standard_Real , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Ax2::*)( const gp_Ax2 & , const Standard_Real , const Standard_Real ) const>(&gp_Ax2::IsCoplanar),
R"#(None)#" , py::arg("Other"), py::arg("LinearTolerance"), py::arg("AngularTolerance")
)
.def("IsCoplanar",
(Standard_Boolean (gp_Ax2::*)( const gp_Ax1 & , const Standard_Real , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Ax2::*)( const gp_Ax1 & , const Standard_Real , const Standard_Real ) const>(&gp_Ax2::IsCoplanar),
R"#(Returns True if . the distance between <me> and the "Location" point of A1 is lower of equal to LinearTolerance and . the main direction of <me> and the direction of A1 are normal. Note: the tolerance criterion for angular equality is given by AngularTolerance.)#" , py::arg("A1"), py::arg("LinearTolerance"), py::arg("AngularTolerance")
)
.def("Mirror",
(void (gp_Ax2::*)( const gp_Pnt & ) ) static_cast<void (gp_Ax2::*)( const gp_Pnt & ) >(&gp_Ax2::Mirror),
R"#(Performs a symmetrical transformation of this coordinate system with respect to: - the point P, and assigns the result to this coordinate system. Warning This transformation is always performed on the origin. In case of a reflection with respect to a point: - the main direction of the coordinate system is not changed, and - the "X Direction" and the "Y Direction" are simply reversed In case of a reflection with respect to an axis or a plane: - the transformation is applied to the "X Direction" and the "Y Direction", then - the "main Direction" is recomputed as the cross product "X Direction" ^ "Y Direction". This maintains the right-handed property of the coordinate system.)#" , py::arg("P")
)
.def("Mirrored",
(gp_Ax2 (gp_Ax2::*)( const gp_Pnt & ) const) static_cast<gp_Ax2 (gp_Ax2::*)( const gp_Pnt & ) const>(&gp_Ax2::Mirrored),
R"#(Performs a symmetrical transformation of this coordinate system with respect to: - the point P, and creates a new one. Warning This transformation is always performed on the origin. In case of a reflection with respect to a point: - the main direction of the coordinate system is not changed, and - the "X Direction" and the "Y Direction" are simply reversed In case of a reflection with respect to an axis or a plane: - the transformation is applied to the "X Direction" and the "Y Direction", then - the "main Direction" is recomputed as the cross product "X Direction" ^ "Y Direction". This maintains the right-handed property of the coordinate system.)#" , py::arg("P")
)
.def("Mirror",
(void (gp_Ax2::*)( const gp_Ax1 & ) ) static_cast<void (gp_Ax2::*)( const gp_Ax1 & ) >(&gp_Ax2::Mirror),
R"#(Performs a symmetrical transformation of this coordinate system with respect to: - the axis A1, and assigns the result to this coordinate systeme. Warning This transformation is always performed on the origin. In case of a reflection with respect to a point: - the main direction of the coordinate system is not changed, and - the "X Direction" and the "Y Direction" are simply reversed In case of a reflection with respect to an axis or a plane: - the transformation is applied to the "X Direction" and the "Y Direction", then - the "main Direction" is recomputed as the cross product "X Direction" ^ "Y Direction". This maintains the right-handed property of the coordinate system.)#" , py::arg("A1")
)
.def("Mirrored",
(gp_Ax2 (gp_Ax2::*)( const gp_Ax1 & ) const) static_cast<gp_Ax2 (gp_Ax2::*)( const gp_Ax1 & ) const>(&gp_Ax2::Mirrored),
R"#(Performs a symmetrical transformation of this coordinate system with respect to: - the axis A1, and creates a new one. Warning This transformation is always performed on the origin. In case of a reflection with respect to a point: - the main direction of the coordinate system is not changed, and - the "X Direction" and the "Y Direction" are simply reversed In case of a reflection with respect to an axis or a plane: - the transformation is applied to the "X Direction" and the "Y Direction", then - the "main Direction" is recomputed as the cross product "X Direction" ^ "Y Direction". This maintains the right-handed property of the coordinate system.)#" , py::arg("A1")
)
.def("Mirror",
(void (gp_Ax2::*)( const gp_Ax2 & ) ) static_cast<void (gp_Ax2::*)( const gp_Ax2 & ) >(&gp_Ax2::Mirror),
R"#(Performs a symmetrical transformation of this coordinate system with respect to: - the plane defined by the origin, "X Direction" and "Y Direction" of coordinate system A2 and assigns the result to this coordinate systeme. Warning This transformation is always performed on the origin. In case of a reflection with respect to a point: - the main direction of the coordinate system is not changed, and - the "X Direction" and the "Y Direction" are simply reversed In case of a reflection with respect to an axis or a plane: - the transformation is applied to the "X Direction" and the "Y Direction", then - the "main Direction" is recomputed as the cross product "X Direction" ^ "Y Direction". This maintains the right-handed property of the coordinate system.)#" , py::arg("A2")
)
.def("Mirrored",
(gp_Ax2 (gp_Ax2::*)( const gp_Ax2 & ) const) static_cast<gp_Ax2 (gp_Ax2::*)( const gp_Ax2 & ) const>(&gp_Ax2::Mirrored),
R"#(Performs a symmetrical transformation of this coordinate system with respect to: - the plane defined by the origin, "X Direction" and "Y Direction" of coordinate system A2 and creates a new one. Warning This transformation is always performed on the origin. In case of a reflection with respect to a point: - the main direction of the coordinate system is not changed, and - the "X Direction" and the "Y Direction" are simply reversed In case of a reflection with respect to an axis or a plane: - the transformation is applied to the "X Direction" and the "Y Direction", then - the "main Direction" is recomputed as the cross product "X Direction" ^ "Y Direction". This maintains the right-handed property of the coordinate system.)#" , py::arg("A2")
)
.def("Rotate",
(void (gp_Ax2::*)( const gp_Ax1 & , const Standard_Real ) ) static_cast<void (gp_Ax2::*)( const gp_Ax1 & , const Standard_Real ) >(&gp_Ax2::Rotate),
R"#(None)#" , py::arg("theA1"), py::arg("theAng")
)
.def("Rotated",
(gp_Ax2 (gp_Ax2::*)( const gp_Ax1 & , const Standard_Real ) const) static_cast<gp_Ax2 (gp_Ax2::*)( const gp_Ax1 & , const Standard_Real ) const>(&gp_Ax2::Rotated),
R"#(Rotates an axis placement. <theA1> is the axis of the rotation. theAng is the angular value of the rotation in radians.)#" , py::arg("theA1"), py::arg("theAng")
)
.def("Scale",
(void (gp_Ax2::*)( const gp_Pnt & , const Standard_Real ) ) static_cast<void (gp_Ax2::*)( const gp_Pnt & , const Standard_Real ) >(&gp_Ax2::Scale),
R"#(None)#" , py::arg("theP"), py::arg("theS")
)
.def("Scaled",
(gp_Ax2 (gp_Ax2::*)( const gp_Pnt & , const Standard_Real ) const) static_cast<gp_Ax2 (gp_Ax2::*)( const gp_Pnt & , const Standard_Real ) const>(&gp_Ax2::Scaled),
R"#(Applies a scaling transformation on the axis placement. The "Location" point of the axisplacement is modified. Warnings : If the scale <S> is negative : . the main direction of the axis placement is not changed. . The "XDirection" and the "YDirection" are reversed. So the axis placement stay right handed.)#" , py::arg("theP"), py::arg("theS")
)
.def("Transform",
(void (gp_Ax2::*)( const gp_Trsf & ) ) static_cast<void (gp_Ax2::*)( const gp_Trsf & ) >(&gp_Ax2::Transform),
R"#(None)#" , py::arg("theT")
)
.def("Transformed",
(gp_Ax2 (gp_Ax2::*)( const gp_Trsf & ) const) static_cast<gp_Ax2 (gp_Ax2::*)( const gp_Trsf & ) const>(&gp_Ax2::Transformed),
R"#(Transforms an axis placement with a Trsf. The "Location" point, the "XDirection" and the "YDirection" are transformed with theT. The resulting main "Direction" of <me> is the cross product between the "XDirection" and the "YDirection" after transformation.)#" , py::arg("theT")
)
.def("Translate",
(void (gp_Ax2::*)( const gp_Vec & ) ) static_cast<void (gp_Ax2::*)( const gp_Vec & ) >(&gp_Ax2::Translate),
R"#(None)#" , py::arg("theV")
)
.def("Translated",
(gp_Ax2 (gp_Ax2::*)( const gp_Vec & ) const) static_cast<gp_Ax2 (gp_Ax2::*)( const gp_Vec & ) const>(&gp_Ax2::Translated),
R"#(Translates an axis plaxement in the direction of the vector <theV>. The magnitude of the translation is the vector's magnitude.)#" , py::arg("theV")
)
.def("Translate",
(void (gp_Ax2::*)( const gp_Pnt & , const gp_Pnt & ) ) static_cast<void (gp_Ax2::*)( const gp_Pnt & , const gp_Pnt & ) >(&gp_Ax2::Translate),
R"#(None)#" , py::arg("theP1"), py::arg("theP2")
)
.def("Translated",
(gp_Ax2 (gp_Ax2::*)( const gp_Pnt & , const gp_Pnt & ) const) static_cast<gp_Ax2 (gp_Ax2::*)( const gp_Pnt & , const gp_Pnt & ) const>(&gp_Ax2::Translated),
R"#(Translates an axis placement from the point <theP1> to the point <theP2>.)#" , py::arg("theP1"), py::arg("theP2")
)
.def("DumpJson",
(void (gp_Ax2::*)( std::ostream & , Standard_Integer ) const) static_cast<void (gp_Ax2::*)( std::ostream & , Standard_Integer ) const>(&gp_Ax2::DumpJson),
R"#(Dumps the content of me into the stream)#" , py::arg("theOStream"), py::arg("theDepth")=static_cast<Standard_Integer>(- 1)
)
.def("InitFromJson",
(Standard_Boolean (gp_Ax2::*)( const std::stringstream & , Standard_Integer & ) ) static_cast<Standard_Boolean (gp_Ax2::*)( const std::stringstream & , Standard_Integer & ) >(&gp_Ax2::InitFromJson),
R"#(Inits the content of me from the stream)#" , py::arg("theSStream"), py::arg("theStreamPos")
)
.def("SetAxis",
(void (gp_Ax2::*)( const gp_Ax1 & ) ) static_cast<void (gp_Ax2::*)( const gp_Ax1 & ) >(&gp_Ax2::SetAxis),
R"#(Assigns the origin and "main Direction" of the axis A1 to this coordinate system, then recomputes its "X Direction" and "Y Direction". Note: The new "X Direction" is computed as follows: new "X Direction" = V1 ^(previous "X Direction" ^ V) where V is the "Direction" of A1. Exceptions Standard_ConstructionError if A1 is parallel to the "X Direction" of this coordinate system.)#" , py::arg("theA1")
)
.def("SetDirection",
(void (gp_Ax2::*)( const gp_Dir & ) ) static_cast<void (gp_Ax2::*)( const gp_Dir & ) >(&gp_Ax2::SetDirection),
R"#(Changes the "main Direction" of this coordinate system, then recomputes its "X Direction" and "Y Direction". Note: the new "X Direction" is computed as follows: new "X Direction" = V ^ (previous "X Direction" ^ V) Exceptions Standard_ConstructionError if V is parallel to the "X Direction" of this coordinate system.)#" , py::arg("theV")
)
.def("IsCoplanar",
(Standard_Boolean (gp_Ax2::*)( const gp_Ax2 & , const Standard_Real , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Ax2::*)( const gp_Ax2 & , const Standard_Real , const Standard_Real ) const>(&gp_Ax2::IsCoplanar),
R"#(None)#" , py::arg("theOther"), py::arg("theLinearTolerance"), py::arg("theAngularTolerance")
)
.def("IsCoplanar",
(Standard_Boolean (gp_Ax2::*)( const gp_Ax1 & , const Standard_Real , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Ax2::*)( const gp_Ax1 & , const Standard_Real , const Standard_Real ) const>(&gp_Ax2::IsCoplanar),
R"#(Returns True if . the distance between <me> and the "Location" point of A1 is lower of equal to LinearTolerance and . the main direction of <me> and the direction of A1 are normal. Note: the tolerance criterion for angular equality is given by AngularTolerance.)#" , py::arg("theA"), py::arg("theLinearTolerance"), py::arg("theAngularTolerance")
)
// methods using call by reference i.s.o. return
// static methods
// static methods using call by reference i.s.o. return
// operators
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
.def("Axis",
(const gp_Ax1 & (gp_Ax2::*)() const) static_cast<const gp_Ax1 & (gp_Ax2::*)() const>(&gp_Ax2::Axis),
R"#(Returns the main axis of <me>. It is the "Location" point and the main "Direction".)#"
)
.def("Direction",
(const gp_Dir & (gp_Ax2::*)() const) static_cast<const gp_Dir & (gp_Ax2::*)() const>(&gp_Ax2::Direction),
R"#(Returns the main direction of <me>.)#"
)
.def("Location",
(const gp_Pnt & (gp_Ax2::*)() const) static_cast<const gp_Pnt & (gp_Ax2::*)() const>(&gp_Ax2::Location),
R"#(Returns the "Location" point (origin) of <me>.)#"
)
.def("XDirection",
(const gp_Dir & (gp_Ax2::*)() const) static_cast<const gp_Dir & (gp_Ax2::*)() const>(&gp_Ax2::XDirection),
R"#(Returns the "XDirection" of <me>.)#"
)
.def("YDirection",
(const gp_Dir & (gp_Ax2::*)() const) static_cast<const gp_Dir & (gp_Ax2::*)() const>(&gp_Ax2::YDirection),
R"#(Returns the "YDirection" of <me>.)#"
)
;
// Class gp_Ax22d from ./opencascade/gp_Ax22d.hxx
klass = m.attr("gp_Ax22d");
// nested enums
static_cast<py::class_<gp_Ax22d , shared_ptr<gp_Ax22d> >>(klass)
// constructors
.def(py::init< >() )
.def(py::init< const gp_Pnt2d &,const gp_Dir2d &,const gp_Dir2d & >() , py::arg("theP"), py::arg("theVx"), py::arg("theVy") )
.def(py::init< const gp_Pnt2d &,const gp_Dir2d &,const Standard_Boolean >() , py::arg("theP"), py::arg("theV"), py::arg("theIsSense")=static_cast<const Standard_Boolean>(Standard_True) )
.def(py::init< const gp_Ax2d &,const Standard_Boolean >() , py::arg("theA"), py::arg("theIsSense")=static_cast<const Standard_Boolean>(Standard_True) )
// custom constructors
// methods
.def("SetAxis",
(void (gp_Ax22d::*)( const gp_Ax22d & ) ) static_cast<void (gp_Ax22d::*)( const gp_Ax22d & ) >(&gp_Ax22d::SetAxis),
R"#(Assigns the origin and the two unit vectors of the coordinate system theA1 to this coordinate system.)#" , py::arg("theA1")
)
.def("SetXAxis",
(void (gp_Ax22d::*)( const gp_Ax2d & ) ) static_cast<void (gp_Ax22d::*)( const gp_Ax2d & ) >(&gp_Ax22d::SetXAxis),
R"#(Changes the XAxis and YAxis ("Location" point and "Direction") of <me>. The "YDirection" is recomputed in the same sense as before.)#" , py::arg("theA1")
)
.def("SetYAxis",
(void (gp_Ax22d::*)( const gp_Ax2d & ) ) static_cast<void (gp_Ax22d::*)( const gp_Ax2d & ) >(&gp_Ax22d::SetYAxis),
R"#(Changes the XAxis and YAxis ("Location" point and "Direction") of <me>. The "XDirection" is recomputed in the same sense as before.)#" , py::arg("theA1")
)
.def("SetLocation",
(void (gp_Ax22d::*)( const gp_Pnt2d & ) ) static_cast<void (gp_Ax22d::*)( const gp_Pnt2d & ) >(&gp_Ax22d::SetLocation),
R"#(Changes the "Location" point (origin) of <me>.)#" , py::arg("theP")
)
.def("SetXDirection",
(void (gp_Ax22d::*)( const gp_Dir2d & ) ) static_cast<void (gp_Ax22d::*)( const gp_Dir2d & ) >(&gp_Ax22d::SetXDirection),
R"#(Assigns theVx to the "X Direction" of this coordinate system. The other unit vector of this coordinate system is recomputed, normal to theVx , without modifying the orientation (right-handed or left-handed) of this coordinate system.)#" , py::arg("theVx")
)
.def("SetYDirection",
(void (gp_Ax22d::*)( const gp_Dir2d & ) ) static_cast<void (gp_Ax22d::*)( const gp_Dir2d & ) >(&gp_Ax22d::SetYDirection),
R"#(Assignsr theVy to the "Y Direction" of this coordinate system. The other unit vector of this coordinate system is recomputed, normal to theVy, without modifying the orientation (right-handed or left-handed) of this coordinate system.)#" , py::arg("theVy")
)
.def("XAxis",
(gp_Ax2d (gp_Ax22d::*)() const) static_cast<gp_Ax2d (gp_Ax22d::*)() const>(&gp_Ax22d::XAxis),
R"#(Returns an axis, for which - the origin is that of this coordinate system, and - the unit vector is either the "X Direction" of this coordinate system. Note: the result is the "X Axis" of this coordinate system.)#"
)
.def("YAxis",
(gp_Ax2d (gp_Ax22d::*)() const) static_cast<gp_Ax2d (gp_Ax22d::*)() const>(&gp_Ax22d::YAxis),
R"#(Returns an axis, for which - the origin is that of this coordinate system, and - the unit vector is either the "Y Direction" of this coordinate system. Note: the result is the "Y Axis" of this coordinate system.)#"
)
.def("Mirror",
(void (gp_Ax22d::*)( const gp_Pnt2d & ) ) static_cast<void (gp_Ax22d::*)( const gp_Pnt2d & ) >(&gp_Ax22d::Mirror),
R"#(None)#" , py::arg("theP")
)
.def("Mirrored",
(gp_Ax22d (gp_Ax22d::*)( const gp_Pnt2d & ) const) static_cast<gp_Ax22d (gp_Ax22d::*)( const gp_Pnt2d & ) const>(&gp_Ax22d::Mirrored),
R"#(Performs the symmetrical transformation of an axis placement with respect to the point theP which is the center of the symmetry. Warnings : The main direction of the axis placement is not changed. The "XDirection" and the "YDirection" are reversed. So the axis placement stay right handed.)#" , py::arg("theP")
)
.def("Mirror",
(void (gp_Ax22d::*)( const gp_Ax2d & ) ) static_cast<void (gp_Ax22d::*)( const gp_Ax2d & ) >(&gp_Ax22d::Mirror),
R"#(None)#" , py::arg("theA")
)
.def("Mirrored",
(gp_Ax22d (gp_Ax22d::*)( const gp_Ax2d & ) const) static_cast<gp_Ax22d (gp_Ax22d::*)( const gp_Ax2d & ) const>(&gp_Ax22d::Mirrored),
R"#(Performs the symmetrical transformation of an axis placement with respect to an axis placement which is the axis of the symmetry. The transformation is performed on the "Location" point, on the "XDirection" and "YDirection". The resulting main "Direction" is the cross product between the "XDirection" and the "YDirection" after transformation.)#" , py::arg("theA")
)
.def("Rotate",
(void (gp_Ax22d::*)( const gp_Pnt2d & , const Standard_Real ) ) static_cast<void (gp_Ax22d::*)( const gp_Pnt2d & , const Standard_Real ) >(&gp_Ax22d::Rotate),
R"#(None)#" , py::arg("theP"), py::arg("theAng")
)
.def("Rotated",
(gp_Ax22d (gp_Ax22d::*)( const gp_Pnt2d & , const Standard_Real ) const) static_cast<gp_Ax22d (gp_Ax22d::*)( const gp_Pnt2d & , const Standard_Real ) const>(&gp_Ax22d::Rotated),
R"#(Rotates an axis placement. <theA1> is the axis of the rotation . theAng is the angular value of the rotation in radians.)#" , py::arg("theP"), py::arg("theAng")
)
.def("Scale",
(void (gp_Ax22d::*)( const gp_Pnt2d & , const Standard_Real ) ) static_cast<void (gp_Ax22d::*)( const gp_Pnt2d & , const Standard_Real ) >(&gp_Ax22d::Scale),
R"#(None)#" , py::arg("theP"), py::arg("theS")
)
.def("Scaled",
(gp_Ax22d (gp_Ax22d::*)( const gp_Pnt2d & , const Standard_Real ) const) static_cast<gp_Ax22d (gp_Ax22d::*)( const gp_Pnt2d & , const Standard_Real ) const>(&gp_Ax22d::Scaled),
R"#(Applies a scaling transformation on the axis placement. The "Location" point of the axisplacement is modified. Warnings : If the scale <theS> is negative : . the main direction of the axis placement is not changed. . The "XDirection" and the "YDirection" are reversed. So the axis placement stay right handed.)#" , py::arg("theP"), py::arg("theS")
)
.def("Transform",
(void (gp_Ax22d::*)( const gp_Trsf2d & ) ) static_cast<void (gp_Ax22d::*)( const gp_Trsf2d & ) >(&gp_Ax22d::Transform),
R"#(None)#" , py::arg("theT")
)
.def("Transformed",
(gp_Ax22d (gp_Ax22d::*)( const gp_Trsf2d & ) const) static_cast<gp_Ax22d (gp_Ax22d::*)( const gp_Trsf2d & ) const>(&gp_Ax22d::Transformed),
R"#(Transforms an axis placement with a Trsf. The "Location" point, the "XDirection" and the "YDirection" are transformed with theT. The resulting main "Direction" of <me> is the cross product between the "XDirection" and the "YDirection" after transformation.)#" , py::arg("theT")
)
.def("Translate",
(void (gp_Ax22d::*)( const gp_Vec2d & ) ) static_cast<void (gp_Ax22d::*)( const gp_Vec2d & ) >(&gp_Ax22d::Translate),
R"#(None)#" , py::arg("theV")
)
.def("Translated",
(gp_Ax22d (gp_Ax22d::*)( const gp_Vec2d & ) const) static_cast<gp_Ax22d (gp_Ax22d::*)( const gp_Vec2d & ) const>(&gp_Ax22d::Translated),
R"#(Translates an axis plaxement in the direction of the vector <theV>. The magnitude of the translation is the vector's magnitude.)#" , py::arg("theV")
)
.def("Translate",
(void (gp_Ax22d::*)( const gp_Pnt2d & , const gp_Pnt2d & ) ) static_cast<void (gp_Ax22d::*)( const gp_Pnt2d & , const gp_Pnt2d & ) >(&gp_Ax22d::Translate),
R"#(None)#" , py::arg("theP1"), py::arg("theP2")
)
.def("Translated",
(gp_Ax22d (gp_Ax22d::*)( const gp_Pnt2d & , const gp_Pnt2d & ) const) static_cast<gp_Ax22d (gp_Ax22d::*)( const gp_Pnt2d & , const gp_Pnt2d & ) const>(&gp_Ax22d::Translated),
R"#(Translates an axis placement from the point <theP1> to the point <theP2>.)#" , py::arg("theP1"), py::arg("theP2")
)
.def("DumpJson",
(void (gp_Ax22d::*)( std::ostream & , Standard_Integer ) const) static_cast<void (gp_Ax22d::*)( std::ostream & , Standard_Integer ) const>(&gp_Ax22d::DumpJson),
R"#(Dumps the content of me into the stream)#" , py::arg("theOStream"), py::arg("theDepth")=static_cast<Standard_Integer>(- 1)
)
.def("SetXAxis",
(void (gp_Ax22d::*)( const gp_Ax2d & ) ) static_cast<void (gp_Ax22d::*)( const gp_Ax2d & ) >(&gp_Ax22d::SetXAxis),
R"#(Changes the XAxis and YAxis ("Location" point and "Direction") of <me>. The "YDirection" is recomputed in the same sense as before.)#" , py::arg("theA1")
)
.def("SetYAxis",
(void (gp_Ax22d::*)( const gp_Ax2d & ) ) static_cast<void (gp_Ax22d::*)( const gp_Ax2d & ) >(&gp_Ax22d::SetYAxis),
R"#(Changes the XAxis and YAxis ("Location" point and "Direction") of <me>. The "XDirection" is recomputed in the same sense as before.)#" , py::arg("theA1")
)
.def("SetXDirection",
(void (gp_Ax22d::*)( const gp_Dir2d & ) ) static_cast<void (gp_Ax22d::*)( const gp_Dir2d & ) >(&gp_Ax22d::SetXDirection),
R"#(Assigns theVx to the "X Direction" of this coordinate system. The other unit vector of this coordinate system is recomputed, normal to theVx , without modifying the orientation (right-handed or left-handed) of this coordinate system.)#" , py::arg("theVx")
)
.def("SetYDirection",
(void (gp_Ax22d::*)( const gp_Dir2d & ) ) static_cast<void (gp_Ax22d::*)( const gp_Dir2d & ) >(&gp_Ax22d::SetYDirection),
R"#(Assignsr theVy to the "Y Direction" of this coordinate system. The other unit vector of this coordinate system is recomputed, normal to theVy, without modifying the orientation (right-handed or left-handed) of this coordinate system.)#" , py::arg("theVy")
)
.def("Rotate",
(void (gp_Ax22d::*)( const gp_Pnt2d & , const Standard_Real ) ) static_cast<void (gp_Ax22d::*)( const gp_Pnt2d & , const Standard_Real ) >(&gp_Ax22d::Rotate),
R"#(None)#" , py::arg("theP"), py::arg("theAng")
)
.def("Scale",
(void (gp_Ax22d::*)( const gp_Pnt2d & , const Standard_Real ) ) static_cast<void (gp_Ax22d::*)( const gp_Pnt2d & , const Standard_Real ) >(&gp_Ax22d::Scale),
R"#(None)#" , py::arg("theP"), py::arg("theS")
)
.def("Transform",
(void (gp_Ax22d::*)( const gp_Trsf2d & ) ) static_cast<void (gp_Ax22d::*)( const gp_Trsf2d & ) >(&gp_Ax22d::Transform),
R"#(None)#" , py::arg("theT")
)
// methods using call by reference i.s.o. return
// static methods
// static methods using call by reference i.s.o. return
// operators
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
.def("Location",
(const gp_Pnt2d & (gp_Ax22d::*)() const) static_cast<const gp_Pnt2d & (gp_Ax22d::*)() const>(&gp_Ax22d::Location),
R"#(Returns the "Location" point (origin) of <me>.)#"
)
.def("XDirection",
(const gp_Dir2d & (gp_Ax22d::*)() const) static_cast<const gp_Dir2d & (gp_Ax22d::*)() const>(&gp_Ax22d::XDirection),
R"#(Returns the "XDirection" of <me>.)#"
)
.def("YDirection",
(const gp_Dir2d & (gp_Ax22d::*)() const) static_cast<const gp_Dir2d & (gp_Ax22d::*)() const>(&gp_Ax22d::YDirection),
R"#(Returns the "YDirection" of <me>.)#"
)
;
// Class gp_Ax2d from ./opencascade/gp_Ax2d.hxx
klass = m.attr("gp_Ax2d");
// nested enums
static_cast<py::class_<gp_Ax2d , shared_ptr<gp_Ax2d> >>(klass)
// constructors
.def(py::init< >() )
.def(py::init< const gp_Pnt2d &,const gp_Dir2d & >() , py::arg("theP"), py::arg("theV") )
// custom constructors
// methods
.def("SetLocation",
(void (gp_Ax2d::*)( const gp_Pnt2d & ) ) static_cast<void (gp_Ax2d::*)( const gp_Pnt2d & ) >(&gp_Ax2d::SetLocation),
R"#(Changes the "Location" point (origin) of <me>.)#" , py::arg("theP")
)
.def("SetDirection",
(void (gp_Ax2d::*)( const gp_Dir2d & ) ) static_cast<void (gp_Ax2d::*)( const gp_Dir2d & ) >(&gp_Ax2d::SetDirection),
R"#(Changes the direction of <me>.)#" , py::arg("theV")
)
.def("IsCoaxial",
(Standard_Boolean (gp_Ax2d::*)( const gp_Ax2d & , const Standard_Real , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Ax2d::*)( const gp_Ax2d & , const Standard_Real , const Standard_Real ) const>(&gp_Ax2d::IsCoaxial),
R"#(Returns True if : . the angle between <me> and <Other> is lower or equal to <AngularTolerance> and . the distance between <me>.Location() and <Other> is lower or equal to <LinearTolerance> and . the distance between <Other>.Location() and <me> is lower or equal to LinearTolerance.)#" , py::arg("Other"), py::arg("AngularTolerance"), py::arg("LinearTolerance")
)
.def("IsNormal",
(Standard_Boolean (gp_Ax2d::*)( const gp_Ax2d & , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Ax2d::*)( const gp_Ax2d & , const Standard_Real ) const>(&gp_Ax2d::IsNormal),
R"#(Returns true if this axis and the axis theOther are normal to each other. That is, if the angle between the two axes is equal to Pi/2 or -Pi/2. Note: the tolerance criterion is given by theAngularTolerance.)#" , py::arg("theOther"), py::arg("theAngularTolerance")
)
.def("IsOpposite",
(Standard_Boolean (gp_Ax2d::*)( const gp_Ax2d & , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Ax2d::*)( const gp_Ax2d & , const Standard_Real ) const>(&gp_Ax2d::IsOpposite),
R"#(Returns true if this axis and the axis theOther are parallel, and have opposite orientations. That is, if the angle between the two axes is equal to Pi or -Pi. Note: the tolerance criterion is given by theAngularTolerance.)#" , py::arg("theOther"), py::arg("theAngularTolerance")
)
.def("IsParallel",
(Standard_Boolean (gp_Ax2d::*)( const gp_Ax2d & , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Ax2d::*)( const gp_Ax2d & , const Standard_Real ) const>(&gp_Ax2d::IsParallel),
R"#(Returns true if this axis and the axis theOther are parallel, and have either the same or opposite orientations. That is, if the angle between the two axes is equal to 0, Pi or -Pi. Note: the tolerance criterion is given by theAngularTolerance.)#" , py::arg("theOther"), py::arg("theAngularTolerance")
)
.def("Angle",
(Standard_Real (gp_Ax2d::*)( const gp_Ax2d & ) const) static_cast<Standard_Real (gp_Ax2d::*)( const gp_Ax2d & ) const>(&gp_Ax2d::Angle),
R"#(Computes the angle, in radians, between this axis and the axis theOther. The value of the angle is between -Pi and Pi.)#" , py::arg("theOther")
)
.def("Reverse",
(void (gp_Ax2d::*)() ) static_cast<void (gp_Ax2d::*)() >(&gp_Ax2d::Reverse),
R"#(Reverses the direction of <me> and assigns the result to this axis.)#"
)
.def("Reversed",
(gp_Ax2d (gp_Ax2d::*)() const) static_cast<gp_Ax2d (gp_Ax2d::*)() const>(&gp_Ax2d::Reversed),
R"#(Computes a new axis placement with a direction opposite to the direction of <me>.)#"
)
.def("Mirror",
(void (gp_Ax2d::*)( const gp_Pnt2d & ) ) static_cast<void (gp_Ax2d::*)( const gp_Pnt2d & ) >(&gp_Ax2d::Mirror),
R"#(None)#" , py::arg("P")
)
.def("Mirrored",
(gp_Ax2d (gp_Ax2d::*)( const gp_Pnt2d & ) const) static_cast<gp_Ax2d (gp_Ax2d::*)( const gp_Pnt2d & ) const>(&gp_Ax2d::Mirrored),
R"#(Performs the symmetrical transformation of an axis placement with respect to the point P which is the center of the symmetry.)#" , py::arg("P")
)
.def("Mirror",
(void (gp_Ax2d::*)( const gp_Ax2d & ) ) static_cast<void (gp_Ax2d::*)( const gp_Ax2d & ) >(&gp_Ax2d::Mirror),
R"#(None)#" , py::arg("A")
)
.def("Mirrored",
(gp_Ax2d (gp_Ax2d::*)( const gp_Ax2d & ) const) static_cast<gp_Ax2d (gp_Ax2d::*)( const gp_Ax2d & ) const>(&gp_Ax2d::Mirrored),
R"#(Performs the symmetrical transformation of an axis placement with respect to an axis placement which is the axis of the symmetry.)#" , py::arg("A")
)
.def("Rotate",
(void (gp_Ax2d::*)( const gp_Pnt2d & , const Standard_Real ) ) static_cast<void (gp_Ax2d::*)( const gp_Pnt2d & , const Standard_Real ) >(&gp_Ax2d::Rotate),
R"#(None)#" , py::arg("theP"), py::arg("theAng")
)
.def("Rotated",
(gp_Ax2d (gp_Ax2d::*)( const gp_Pnt2d & , const Standard_Real ) const) static_cast<gp_Ax2d (gp_Ax2d::*)( const gp_Pnt2d & , const Standard_Real ) const>(&gp_Ax2d::Rotated),
R"#(Rotates an axis placement. <theP> is the center of the rotation. theAng is the angular value of the rotation in radians.)#" , py::arg("theP"), py::arg("theAng")
)
.def("Scale",
(void (gp_Ax2d::*)( const gp_Pnt2d & , const Standard_Real ) ) static_cast<void (gp_Ax2d::*)( const gp_Pnt2d & , const Standard_Real ) >(&gp_Ax2d::Scale),
R"#(None)#" , py::arg("P"), py::arg("S")
)
.def("Scaled",
(gp_Ax2d (gp_Ax2d::*)( const gp_Pnt2d & , const Standard_Real ) const) static_cast<gp_Ax2d (gp_Ax2d::*)( const gp_Pnt2d & , const Standard_Real ) const>(&gp_Ax2d::Scaled),
R"#(Applies a scaling transformation on the axis placement. The "Location" point of the axisplacement is modified. The "Direction" is reversed if the scale is negative.)#" , py::arg("theP"), py::arg("theS")
)
.def("Transform",
(void (gp_Ax2d::*)( const gp_Trsf2d & ) ) static_cast<void (gp_Ax2d::*)( const gp_Trsf2d & ) >(&gp_Ax2d::Transform),
R"#(None)#" , py::arg("theT")
)
.def("Transformed",
(gp_Ax2d (gp_Ax2d::*)( const gp_Trsf2d & ) const) static_cast<gp_Ax2d (gp_Ax2d::*)( const gp_Trsf2d & ) const>(&gp_Ax2d::Transformed),
R"#(Transforms an axis placement with a Trsf.)#" , py::arg("theT")
)
.def("Translate",
(void (gp_Ax2d::*)( const gp_Vec2d & ) ) static_cast<void (gp_Ax2d::*)( const gp_Vec2d & ) >(&gp_Ax2d::Translate),
R"#(None)#" , py::arg("theV")
)
.def("Translated",
(gp_Ax2d (gp_Ax2d::*)( const gp_Vec2d & ) const) static_cast<gp_Ax2d (gp_Ax2d::*)( const gp_Vec2d & ) const>(&gp_Ax2d::Translated),
R"#(Translates an axis placement in the direction of the vector theV. The magnitude of the translation is the vector's magnitude.)#" , py::arg("theV")
)
.def("Translate",
(void (gp_Ax2d::*)( const gp_Pnt2d & , const gp_Pnt2d & ) ) static_cast<void (gp_Ax2d::*)( const gp_Pnt2d & , const gp_Pnt2d & ) >(&gp_Ax2d::Translate),
R"#(None)#" , py::arg("theP1"), py::arg("theP2")
)
.def("Translated",
(gp_Ax2d (gp_Ax2d::*)( const gp_Pnt2d & , const gp_Pnt2d & ) const) static_cast<gp_Ax2d (gp_Ax2d::*)( const gp_Pnt2d & , const gp_Pnt2d & ) const>(&gp_Ax2d::Translated),
R"#(Translates an axis placement from the point theP1 to the point theP2.)#" , py::arg("theP1"), py::arg("theP2")
)
.def("DumpJson",
(void (gp_Ax2d::*)( std::ostream & , Standard_Integer ) const) static_cast<void (gp_Ax2d::*)( std::ostream & , Standard_Integer ) const>(&gp_Ax2d::DumpJson),
R"#(Dumps the content of me into the stream)#" , py::arg("theOStream"), py::arg("theDepth")=static_cast<Standard_Integer>(- 1)
)
// methods using call by reference i.s.o. return
// static methods
// static methods using call by reference i.s.o. return
// operators
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
.def("Location",
(const gp_Pnt2d & (gp_Ax2d::*)() const) static_cast<const gp_Pnt2d & (gp_Ax2d::*)() const>(&gp_Ax2d::Location),
R"#(Returns the origin of <me>.)#"
)
.def("Direction",
(const gp_Dir2d & (gp_Ax2d::*)() const) static_cast<const gp_Dir2d & (gp_Ax2d::*)() const>(&gp_Ax2d::Direction),
R"#(Returns the direction of <me>.)#"
)
;
// Class gp_Ax3 from ./opencascade/gp_Ax3.hxx
klass = m.attr("gp_Ax3");
// nested enums
static_cast<py::class_<gp_Ax3 , shared_ptr<gp_Ax3> >>(klass)
// constructors
.def(py::init< >() )
.def(py::init< const gp_Ax2 & >() , py::arg("theA") )
.def(py::init< const gp_Pnt &,const gp_Dir &,const gp_Dir & >() , py::arg("theP"), py::arg("theN"), py::arg("theVx") )
.def(py::init< const gp_Pnt &,const gp_Dir & >() , py::arg("theP"), py::arg("theV") )
// custom constructors
// methods
.def("XReverse",
(void (gp_Ax3::*)() ) static_cast<void (gp_Ax3::*)() >(&gp_Ax3::XReverse),
R"#(Reverses the X direction of <me>.)#"
)
.def("YReverse",
(void (gp_Ax3::*)() ) static_cast<void (gp_Ax3::*)() >(&gp_Ax3::YReverse),
R"#(Reverses the Y direction of <me>.)#"
)
.def("ZReverse",
(void (gp_Ax3::*)() ) static_cast<void (gp_Ax3::*)() >(&gp_Ax3::ZReverse),
R"#(Reverses the Z direction of <me>.)#"
)
.def("SetAxis",
(void (gp_Ax3::*)( const gp_Ax1 & ) ) static_cast<void (gp_Ax3::*)( const gp_Ax1 & ) >(&gp_Ax3::SetAxis),
R"#(Assigns the origin and "main Direction" of the axis theA1 to this coordinate system, then recomputes its "X Direction" and "Y Direction". Note: - The new "X Direction" is computed as follows: new "X Direction" = V1 ^(previous "X Direction" ^ V) where V is the "Direction" of theA1. - The orientation of this coordinate system (right-handed or left-handed) is not modified. Raises ConstructionError if the "Direction" of <theA1> and the "XDirection" of <me> are parallel (same or opposite orientation) because it is impossible to calculate the new "XDirection" and the new "YDirection".)#" , py::arg("theA1")
)
.def("SetDirection",
(void (gp_Ax3::*)( const gp_Dir & ) ) static_cast<void (gp_Ax3::*)( const gp_Dir & ) >(&gp_Ax3::SetDirection),
R"#(Changes the main direction of this coordinate system, then recomputes its "X Direction" and "Y Direction". Note: - The new "X Direction" is computed as follows: new "X Direction" = theV ^ (previous "X Direction" ^ theV). - The orientation of this coordinate system (left- or right-handed) is not modified. Raises ConstructionError if <theV> and the previous "XDirection" are parallel because it is impossible to calculate the new "XDirection" and the new "YDirection".)#" , py::arg("theV")
)
.def("SetLocation",
(void (gp_Ax3::*)( const gp_Pnt & ) ) static_cast<void (gp_Ax3::*)( const gp_Pnt & ) >(&gp_Ax3::SetLocation),
R"#(Changes the "Location" point (origin) of <me>.)#" , py::arg("theP")
)
.def("SetXDirection",
(void (gp_Ax3::*)( const gp_Dir & ) ) static_cast<void (gp_Ax3::*)( const gp_Dir & ) >(&gp_Ax3::SetXDirection),
R"#(Changes the "Xdirection" of <me>. The main direction "Direction" is not modified, the "Ydirection" is modified. If <theVx> is not normal to the main direction then <XDirection> is computed as follows XDirection = Direction ^ (theVx ^ Direction). Raises ConstructionError if <theVx> is parallel (same or opposite orientation) to the main direction of <me>)#" , py::arg("theVx")
)
.def("SetYDirection",
(void (gp_Ax3::*)( const gp_Dir & ) ) static_cast<void (gp_Ax3::*)( const gp_Dir & ) >(&gp_Ax3::SetYDirection),
R"#(Changes the "Ydirection" of <me>. The main direction is not modified but the "Xdirection" is changed. If <theVy> is not normal to the main direction then "YDirection" is computed as follows YDirection = Direction ^ (<theVy> ^ Direction). Raises ConstructionError if <theVy> is parallel to the main direction of <me>)#" , py::arg("theVy")
)
.def("Angle",
(Standard_Real (gp_Ax3::*)( const gp_Ax3 & ) const) static_cast<Standard_Real (gp_Ax3::*)( const gp_Ax3 & ) const>(&gp_Ax3::Angle),
R"#(Computes the angular value between the main direction of <me> and the main direction of <theOther>. Returns the angle between 0 and PI in radians.)#" , py::arg("theOther")
)
.def("Ax2",
(gp_Ax2 (gp_Ax3::*)() const) static_cast<gp_Ax2 (gp_Ax3::*)() const>(&gp_Ax3::Ax2),
R"#(Computes a right-handed coordinate system with the same "X Direction" and "Y Direction" as those of this coordinate system, then recomputes the "main Direction". If this coordinate system is right-handed, the result returned is the same coordinate system. If this coordinate system is left-handed, the result is reversed.)#"
)
.def("Direct",
(Standard_Boolean (gp_Ax3::*)() const) static_cast<Standard_Boolean (gp_Ax3::*)() const>(&gp_Ax3::Direct),
R"#(Returns True if the coordinate system is right-handed. i.e. XDirection().Crossed(YDirection()).Dot(Direction()) > 0)#"
)
.def("IsCoplanar",
(Standard_Boolean (gp_Ax3::*)( const gp_Ax3 & , const Standard_Real , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Ax3::*)( const gp_Ax3 & , const Standard_Real , const Standard_Real ) const>(&gp_Ax3::IsCoplanar),
R"#(Returns True if . the distance between the "Location" point of <me> and <theOther> is lower or equal to theLinearTolerance and . the distance between the "Location" point of <theOther> and <me> is lower or equal to theLinearTolerance and . the main direction of <me> and the main direction of <theOther> are parallel (same or opposite orientation).)#" , py::arg("theOther"), py::arg("theLinearTolerance"), py::arg("theAngularTolerance")
)
.def("IsCoplanar",
(Standard_Boolean (gp_Ax3::*)( const gp_Ax1 & , const Standard_Real , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Ax3::*)( const gp_Ax1 & , const Standard_Real , const Standard_Real ) const>(&gp_Ax3::IsCoplanar),
R"#(Returns True if . the distance between <me> and the "Location" point of theA1 is lower of equal to theLinearTolerance and . the distance between theA1 and the "Location" point of <me> is lower or equal to theLinearTolerance and . the main direction of <me> and the direction of theA1 are normal.)#" , py::arg("theA1"), py::arg("theLinearTolerance"), py::arg("theAngularTolerance")
)
.def("Mirror",
(void (gp_Ax3::*)( const gp_Pnt & ) ) static_cast<void (gp_Ax3::*)( const gp_Pnt & ) >(&gp_Ax3::Mirror),
R"#(None)#" , py::arg("theP")
)
.def("Mirrored",
(gp_Ax3 (gp_Ax3::*)( const gp_Pnt & ) const) static_cast<gp_Ax3 (gp_Ax3::*)( const gp_Pnt & ) const>(&gp_Ax3::Mirrored),
R"#(Performs the symmetrical transformation of an axis placement with respect to the point theP which is the center of the symmetry. Warnings : The main direction of the axis placement is not changed. The "XDirection" and the "YDirection" are reversed. So the axis placement stay right handed.)#" , py::arg("theP")
)
.def("Mirror",
(void (gp_Ax3::*)( const gp_Ax1 & ) ) static_cast<void (gp_Ax3::*)( const gp_Ax1 & ) >(&gp_Ax3::Mirror),
R"#(None)#" , py::arg("theA1")
)
.def("Mirrored",
(gp_Ax3 (gp_Ax3::*)( const gp_Ax1 & ) const) static_cast<gp_Ax3 (gp_Ax3::*)( const gp_Ax1 & ) const>(&gp_Ax3::Mirrored),
R"#(Performs the symmetrical transformation of an axis placement with respect to an axis placement which is the axis of the symmetry. The transformation is performed on the "Location" point, on the "XDirection" and "YDirection". The resulting main "Direction" is the cross product between the "XDirection" and the "YDirection" after transformation.)#" , py::arg("theA1")
)
.def("Mirror",
(void (gp_Ax3::*)( const gp_Ax2 & ) ) static_cast<void (gp_Ax3::*)( const gp_Ax2 & ) >(&gp_Ax3::Mirror),
R"#(None)#" , py::arg("theA2")
)
.def("Mirrored",
(gp_Ax3 (gp_Ax3::*)( const gp_Ax2 & ) const) static_cast<gp_Ax3 (gp_Ax3::*)( const gp_Ax2 & ) const>(&gp_Ax3::Mirrored),
R"#(Performs the symmetrical transformation of an axis placement with respect to a plane. The axis placement <theA2> locates the plane of the symmetry : (Location, XDirection, YDirection). The transformation is performed on the "Location" point, on the "XDirection" and "YDirection". The resulting main "Direction" is the cross product between the "XDirection" and the "YDirection" after transformation.)#" , py::arg("theA2")
)
.def("Rotate",
(void (gp_Ax3::*)( const gp_Ax1 & , const Standard_Real ) ) static_cast<void (gp_Ax3::*)( const gp_Ax1 & , const Standard_Real ) >(&gp_Ax3::Rotate),
R"#(None)#" , py::arg("theA1"), py::arg("theAng")
)
.def("Rotated",
(gp_Ax3 (gp_Ax3::*)( const gp_Ax1 & , const Standard_Real ) const) static_cast<gp_Ax3 (gp_Ax3::*)( const gp_Ax1 & , const Standard_Real ) const>(&gp_Ax3::Rotated),
R"#(Rotates an axis placement. <theA1> is the axis of the rotation . theAng is the angular value of the rotation in radians.)#" , py::arg("theA1"), py::arg("theAng")
)
.def("Scale",
(void (gp_Ax3::*)( const gp_Pnt & , const Standard_Real ) ) static_cast<void (gp_Ax3::*)( const gp_Pnt & , const Standard_Real ) >(&gp_Ax3::Scale),
R"#(None)#" , py::arg("theP"), py::arg("theS")
)
.def("Scaled",
(gp_Ax3 (gp_Ax3::*)( const gp_Pnt & , const Standard_Real ) const) static_cast<gp_Ax3 (gp_Ax3::*)( const gp_Pnt & , const Standard_Real ) const>(&gp_Ax3::Scaled),
R"#(Applies a scaling transformation on the axis placement. The "Location" point of the axisplacement is modified. Warnings : If the scale <theS> is negative : . the main direction of the axis placement is not changed. . The "XDirection" and the "YDirection" are reversed. So the axis placement stay right handed.)#" , py::arg("theP"), py::arg("theS")
)
.def("Transform",
(void (gp_Ax3::*)( const gp_Trsf & ) ) static_cast<void (gp_Ax3::*)( const gp_Trsf & ) >(&gp_Ax3::Transform),
R"#(None)#" , py::arg("theT")
)
.def("Transformed",
(gp_Ax3 (gp_Ax3::*)( const gp_Trsf & ) const) static_cast<gp_Ax3 (gp_Ax3::*)( const gp_Trsf & ) const>(&gp_Ax3::Transformed),
R"#(Transforms an axis placement with a Trsf. The "Location" point, the "XDirection" and the "YDirection" are transformed with theT. The resulting main "Direction" of <me> is the cross product between the "XDirection" and the "YDirection" after transformation.)#" , py::arg("theT")
)
.def("Translate",
(void (gp_Ax3::*)( const gp_Vec & ) ) static_cast<void (gp_Ax3::*)( const gp_Vec & ) >(&gp_Ax3::Translate),
R"#(None)#" , py::arg("theV")
)
.def("Translated",
(gp_Ax3 (gp_Ax3::*)( const gp_Vec & ) const) static_cast<gp_Ax3 (gp_Ax3::*)( const gp_Vec & ) const>(&gp_Ax3::Translated),
R"#(Translates an axis plaxement in the direction of the vector <theV>. The magnitude of the translation is the vector's magnitude.)#" , py::arg("theV")
)
.def("Translate",
(void (gp_Ax3::*)( const gp_Pnt & , const gp_Pnt & ) ) static_cast<void (gp_Ax3::*)( const gp_Pnt & , const gp_Pnt & ) >(&gp_Ax3::Translate),
R"#(None)#" , py::arg("theP1"), py::arg("theP2")
)
.def("Translated",
(gp_Ax3 (gp_Ax3::*)( const gp_Pnt & , const gp_Pnt & ) const) static_cast<gp_Ax3 (gp_Ax3::*)( const gp_Pnt & , const gp_Pnt & ) const>(&gp_Ax3::Translated),
R"#(Translates an axis placement from the point <theP1> to the point <theP2>.)#" , py::arg("theP1"), py::arg("theP2")
)
.def("DumpJson",
(void (gp_Ax3::*)( std::ostream & , Standard_Integer ) const) static_cast<void (gp_Ax3::*)( std::ostream & , Standard_Integer ) const>(&gp_Ax3::DumpJson),
R"#(Dumps the content of me into the stream)#" , py::arg("theOStream"), py::arg("theDepth")=static_cast<Standard_Integer>(- 1)
)
.def("InitFromJson",
(Standard_Boolean (gp_Ax3::*)( const std::stringstream & , Standard_Integer & ) ) static_cast<Standard_Boolean (gp_Ax3::*)( const std::stringstream & , Standard_Integer & ) >(&gp_Ax3::InitFromJson),
R"#(Inits the content of me from the stream)#" , py::arg("theSStream"), py::arg("theStreamPos")
)
.def("Ax2",
(gp_Ax2 (gp_Ax3::*)() const) static_cast<gp_Ax2 (gp_Ax3::*)() const>(&gp_Ax3::Ax2),
R"#(Computes a right-handed coordinate system with the same "X Direction" and "Y Direction" as those of this coordinate system, then recomputes the "main Direction". If this coordinate system is right-handed, the result returned is the same coordinate system. If this coordinate system is left-handed, the result is reversed.)#"
)
.def("SetAxis",
(void (gp_Ax3::*)( const gp_Ax1 & ) ) static_cast<void (gp_Ax3::*)( const gp_Ax1 & ) >(&gp_Ax3::SetAxis),
R"#(Assigns the origin and "main Direction" of the axis theA1 to this coordinate system, then recomputes its "X Direction" and "Y Direction". Note: - The new "X Direction" is computed as follows: new "X Direction" = V1 ^(previous "X Direction" ^ V) where V is the "Direction" of theA1. - The orientation of this coordinate system (right-handed or left-handed) is not modified. Raises ConstructionError if the "Direction" of <theA1> and the "XDirection" of <me> are parallel (same or opposite orientation) because it is impossible to calculate the new "XDirection" and the new "YDirection".)#" , py::arg("theA1")
)
.def("SetDirection",
(void (gp_Ax3::*)( const gp_Dir & ) ) static_cast<void (gp_Ax3::*)( const gp_Dir & ) >(&gp_Ax3::SetDirection),
R"#(Changes the main direction of this coordinate system, then recomputes its "X Direction" and "Y Direction". Note: - The new "X Direction" is computed as follows: new "X Direction" = theV ^ (previous "X Direction" ^ theV). - The orientation of this coordinate system (left- or right-handed) is not modified. Raises ConstructionError if <theV> and the previous "XDirection" are parallel because it is impossible to calculate the new "XDirection" and the new "YDirection".)#" , py::arg("theV")
)
.def("SetXDirection",
(void (gp_Ax3::*)( const gp_Dir & ) ) static_cast<void (gp_Ax3::*)( const gp_Dir & ) >(&gp_Ax3::SetXDirection),
R"#(Changes the "Xdirection" of <me>. The main direction "Direction" is not modified, the "Ydirection" is modified. If <theVx> is not normal to the main direction then <XDirection> is computed as follows XDirection = Direction ^ (theVx ^ Direction). Raises ConstructionError if <theVx> is parallel (same or opposite orientation) to the main direction of <me>)#" , py::arg("theVx")
)
.def("SetYDirection",
(void (gp_Ax3::*)( const gp_Dir & ) ) static_cast<void (gp_Ax3::*)( const gp_Dir & ) >(&gp_Ax3::SetYDirection),
R"#(Changes the "Ydirection" of <me>. The main direction is not modified but the "Xdirection" is changed. If <theVy> is not normal to the main direction then "YDirection" is computed as follows YDirection = Direction ^ (<theVy> ^ Direction). Raises ConstructionError if <theVy> is parallel to the main direction of <me>)#" , py::arg("theVy")
)
.def("IsCoplanar",
(Standard_Boolean (gp_Ax3::*)( const gp_Ax3 & , const Standard_Real , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Ax3::*)( const gp_Ax3 & , const Standard_Real , const Standard_Real ) const>(&gp_Ax3::IsCoplanar),
R"#(Returns True if . the distance between the "Location" point of <me> and <theOther> is lower or equal to theLinearTolerance and . the distance between the "Location" point of <theOther> and <me> is lower or equal to theLinearTolerance and . the main direction of <me> and the main direction of <theOther> are parallel (same or opposite orientation).)#" , py::arg("theOther"), py::arg("theLinearTolerance"), py::arg("theAngularTolerance")
)
.def("IsCoplanar",
(Standard_Boolean (gp_Ax3::*)( const gp_Ax1 & , const Standard_Real , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Ax3::*)( const gp_Ax1 & , const Standard_Real , const Standard_Real ) const>(&gp_Ax3::IsCoplanar),
R"#(Returns True if . the distance between <me> and the "Location" point of theA1 is lower of equal to theLinearTolerance and . the distance between theA1 and the "Location" point of <me> is lower or equal to theLinearTolerance and . the main direction of <me> and the direction of theA1 are normal.)#" , py::arg("theA1"), py::arg("theLinearTolerance"), py::arg("theAngularTolerance")
)
// methods using call by reference i.s.o. return
// static methods
// static methods using call by reference i.s.o. return
// operators
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
.def("Axis",
(const gp_Ax1 & (gp_Ax3::*)() const) static_cast<const gp_Ax1 & (gp_Ax3::*)() const>(&gp_Ax3::Axis),
R"#(Returns the main axis of <me>. It is the "Location" point and the main "Direction".)#"
)
.def("Direction",
(const gp_Dir & (gp_Ax3::*)() const) static_cast<const gp_Dir & (gp_Ax3::*)() const>(&gp_Ax3::Direction),
R"#(Returns the main direction of <me>.)#"
)
.def("Location",
(const gp_Pnt & (gp_Ax3::*)() const) static_cast<const gp_Pnt & (gp_Ax3::*)() const>(&gp_Ax3::Location),
R"#(Returns the "Location" point (origin) of <me>.)#"
)
.def("XDirection",
(const gp_Dir & (gp_Ax3::*)() const) static_cast<const gp_Dir & (gp_Ax3::*)() const>(&gp_Ax3::XDirection),
R"#(Returns the "XDirection" of <me>.)#"
)
.def("YDirection",
(const gp_Dir & (gp_Ax3::*)() const) static_cast<const gp_Dir & (gp_Ax3::*)() const>(&gp_Ax3::YDirection),
R"#(Returns the "YDirection" of <me>.)#"
)
;
// Class gp_Circ from ./opencascade/gp_Circ.hxx
klass = m.attr("gp_Circ");
// nested enums
static_cast<py::class_<gp_Circ , shared_ptr<gp_Circ> >>(klass)
// constructors
.def(py::init< >() )
.def(py::init< const gp_Ax2 &,const Standard_Real >() , py::arg("theA2"), py::arg("theRadius") )
// custom constructors
// methods
.def("SetAxis",
(void (gp_Circ::*)( const gp_Ax1 & ) ) static_cast<void (gp_Circ::*)( const gp_Ax1 & ) >(&gp_Circ::SetAxis),
R"#(Changes the main axis of the circle. It is the axis perpendicular to the plane of the circle. Raises ConstructionError if the direction of theA1 is parallel to the "XAxis" of the circle.)#" , py::arg("theA1")
)
.def("SetLocation",
(void (gp_Circ::*)( const gp_Pnt & ) ) static_cast<void (gp_Circ::*)( const gp_Pnt & ) >(&gp_Circ::SetLocation),
R"#(Changes the "Location" point (center) of the circle.)#" , py::arg("theP")
)
.def("SetPosition",
(void (gp_Circ::*)( const gp_Ax2 & ) ) static_cast<void (gp_Circ::*)( const gp_Ax2 & ) >(&gp_Circ::SetPosition),
R"#(Changes the position of the circle.)#" , py::arg("theA2")
)
.def("SetRadius",
(void (gp_Circ::*)( const Standard_Real ) ) static_cast<void (gp_Circ::*)( const Standard_Real ) >(&gp_Circ::SetRadius),
R"#(Modifies the radius of this circle. Warning. This class does not prevent the creation of a circle where theRadius is null. Exceptions Standard_ConstructionError if theRadius is negative.)#" , py::arg("theRadius")
)
.def("Area",
(Standard_Real (gp_Circ::*)() const) static_cast<Standard_Real (gp_Circ::*)() const>(&gp_Circ::Area),
R"#(Computes the area of the circle.)#"
)
.def("Length",
(Standard_Real (gp_Circ::*)() const) static_cast<Standard_Real (gp_Circ::*)() const>(&gp_Circ::Length),
R"#(Computes the circumference of the circle.)#"
)
.def("Radius",
(Standard_Real (gp_Circ::*)() const) static_cast<Standard_Real (gp_Circ::*)() const>(&gp_Circ::Radius),
R"#(Returns the radius of this circle.)#"
)
.def("XAxis",
(gp_Ax1 (gp_Circ::*)() const) static_cast<gp_Ax1 (gp_Circ::*)() const>(&gp_Circ::XAxis),
R"#(Returns the "XAxis" of the circle. This axis is perpendicular to the axis of the conic. This axis and the "Yaxis" define the plane of the conic.)#"
)
.def("YAxis",
(gp_Ax1 (gp_Circ::*)() const) static_cast<gp_Ax1 (gp_Circ::*)() const>(&gp_Circ::YAxis),
R"#(Returns the "YAxis" of the circle. This axis and the "Xaxis" define the plane of the conic. The "YAxis" is perpendicular to the "Xaxis".)#"
)
.def("Distance",
(Standard_Real (gp_Circ::*)( const gp_Pnt & ) const) static_cast<Standard_Real (gp_Circ::*)( const gp_Pnt & ) const>(&gp_Circ::Distance),
R"#(Computes the minimum of distance between the point theP and any point on the circumference of the circle.)#" , py::arg("theP")
)
.def("SquareDistance",
(Standard_Real (gp_Circ::*)( const gp_Pnt & ) const) static_cast<Standard_Real (gp_Circ::*)( const gp_Pnt & ) const>(&gp_Circ::SquareDistance),
R"#(Computes the square distance between <me> and the point theP.)#" , py::arg("theP")
)
.def("Contains",
(Standard_Boolean (gp_Circ::*)( const gp_Pnt & , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Circ::*)( const gp_Pnt & , const Standard_Real ) const>(&gp_Circ::Contains),
R"#(Returns True if the point theP is on the circumference. The distance between <me> and <theP> must be lower or equal to theLinearTolerance.)#" , py::arg("theP"), py::arg("theLinearTolerance")
)
.def("Mirror",
(void (gp_Circ::*)( const gp_Pnt & ) ) static_cast<void (gp_Circ::*)( const gp_Pnt & ) >(&gp_Circ::Mirror),
R"#(None)#" , py::arg("theP")
)
.def("Mirrored",
(gp_Circ (gp_Circ::*)( const gp_Pnt & ) const) static_cast<gp_Circ (gp_Circ::*)( const gp_Pnt & ) const>(&gp_Circ::Mirrored),
R"#(Performs the symmetrical transformation of a circle with respect to the point theP which is the center of the symmetry.)#" , py::arg("theP")
)
.def("Mirror",
(void (gp_Circ::*)( const gp_Ax1 & ) ) static_cast<void (gp_Circ::*)( const gp_Ax1 & ) >(&gp_Circ::Mirror),
R"#(None)#" , py::arg("theA1")
)
.def("Mirrored",
(gp_Circ (gp_Circ::*)( const gp_Ax1 & ) const) static_cast<gp_Circ (gp_Circ::*)( const gp_Ax1 & ) const>(&gp_Circ::Mirrored),
R"#(Performs the symmetrical transformation of a circle with respect to an axis placement which is the axis of the symmetry.)#" , py::arg("theA1")
)
.def("Mirror",
(void (gp_Circ::*)( const gp_Ax2 & ) ) static_cast<void (gp_Circ::*)( const gp_Ax2 & ) >(&gp_Circ::Mirror),
R"#(None)#" , py::arg("theA2")
)
.def("Mirrored",
(gp_Circ (gp_Circ::*)( const gp_Ax2 & ) const) static_cast<gp_Circ (gp_Circ::*)( const gp_Ax2 & ) const>(&gp_Circ::Mirrored),
R"#(Performs the symmetrical transformation of a circle with respect to a plane. The axis placement theA2 locates the plane of the of the symmetry : (Location, XDirection, YDirection).)#" , py::arg("theA2")
)
.def("Rotate",
(void (gp_Circ::*)( const gp_Ax1 & , const Standard_Real ) ) static_cast<void (gp_Circ::*)( const gp_Ax1 & , const Standard_Real ) >(&gp_Circ::Rotate),
R"#(None)#" , py::arg("theA1"), py::arg("theAng")
)
.def("Rotated",
(gp_Circ (gp_Circ::*)( const gp_Ax1 & , const Standard_Real ) const) static_cast<gp_Circ (gp_Circ::*)( const gp_Ax1 & , const Standard_Real ) const>(&gp_Circ::Rotated),
R"#(Rotates a circle. theA1 is the axis of the rotation. theAng is the angular value of the rotation in radians.)#" , py::arg("theA1"), py::arg("theAng")
)
.def("Scale",
(void (gp_Circ::*)( const gp_Pnt & , const Standard_Real ) ) static_cast<void (gp_Circ::*)( const gp_Pnt & , const Standard_Real ) >(&gp_Circ::Scale),
R"#(None)#" , py::arg("theP"), py::arg("theS")
)
.def("Scaled",
(gp_Circ (gp_Circ::*)( const gp_Pnt & , const Standard_Real ) const) static_cast<gp_Circ (gp_Circ::*)( const gp_Pnt & , const Standard_Real ) const>(&gp_Circ::Scaled),
R"#(Scales a circle. theS is the scaling value. Warnings : If theS is negative the radius stay positive but the "XAxis" and the "YAxis" are reversed as for an ellipse.)#" , py::arg("theP"), py::arg("theS")
)
.def("Transform",
(void (gp_Circ::*)( const gp_Trsf & ) ) static_cast<void (gp_Circ::*)( const gp_Trsf & ) >(&gp_Circ::Transform),
R"#(None)#" , py::arg("theT")
)
.def("Transformed",
(gp_Circ (gp_Circ::*)( const gp_Trsf & ) const) static_cast<gp_Circ (gp_Circ::*)( const gp_Trsf & ) const>(&gp_Circ::Transformed),
R"#(Transforms a circle with the transformation theT from class Trsf.)#" , py::arg("theT")
)
.def("Translate",
(void (gp_Circ::*)( const gp_Vec & ) ) static_cast<void (gp_Circ::*)( const gp_Vec & ) >(&gp_Circ::Translate),
R"#(None)#" , py::arg("theV")
)
.def("Translated",
(gp_Circ (gp_Circ::*)( const gp_Vec & ) const) static_cast<gp_Circ (gp_Circ::*)( const gp_Vec & ) const>(&gp_Circ::Translated),
R"#(Translates a circle in the direction of the vector theV. The magnitude of the translation is the vector's magnitude.)#" , py::arg("theV")
)
.def("Translate",
(void (gp_Circ::*)( const gp_Pnt & , const gp_Pnt & ) ) static_cast<void (gp_Circ::*)( const gp_Pnt & , const gp_Pnt & ) >(&gp_Circ::Translate),
R"#(None)#" , py::arg("theP1"), py::arg("theP2")
)
.def("Translated",
(gp_Circ (gp_Circ::*)( const gp_Pnt & , const gp_Pnt & ) const) static_cast<gp_Circ (gp_Circ::*)( const gp_Pnt & , const gp_Pnt & ) const>(&gp_Circ::Translated),
R"#(Translates a circle from the point theP1 to the point theP2.)#" , py::arg("theP1"), py::arg("theP2")
)
.def("Scale",
(void (gp_Circ::*)( const gp_Pnt & , const Standard_Real ) ) static_cast<void (gp_Circ::*)( const gp_Pnt & , const Standard_Real ) >(&gp_Circ::Scale),
R"#(None)#" , py::arg("theP"), py::arg("theS")
)
.def("Scaled",
(gp_Circ (gp_Circ::*)( const gp_Pnt & , const Standard_Real ) const) static_cast<gp_Circ (gp_Circ::*)( const gp_Pnt & , const Standard_Real ) const>(&gp_Circ::Scaled),
R"#(Scales a circle. theS is the scaling value. Warnings : If theS is negative the radius stay positive but the "XAxis" and the "YAxis" are reversed as for an ellipse.)#" , py::arg("theP"), py::arg("theS")
)
.def("Transform",
(void (gp_Circ::*)( const gp_Trsf & ) ) static_cast<void (gp_Circ::*)( const gp_Trsf & ) >(&gp_Circ::Transform),
R"#(None)#" , py::arg("theT")
)
.def("Transformed",
(gp_Circ (gp_Circ::*)( const gp_Trsf & ) const) static_cast<gp_Circ (gp_Circ::*)( const gp_Trsf & ) const>(&gp_Circ::Transformed),
R"#(Transforms a circle with the transformation theT from class Trsf.)#" , py::arg("theT")
)
// methods using call by reference i.s.o. return
// static methods
// static methods using call by reference i.s.o. return
// operators
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
.def("Axis",
(const gp_Ax1 & (gp_Circ::*)() const) static_cast<const gp_Ax1 & (gp_Circ::*)() const>(&gp_Circ::Axis),
R"#(Returns the main axis of the circle. It is the axis perpendicular to the plane of the circle, passing through the "Location" point (center) of the circle.)#"
)
.def("Location",
(const gp_Pnt & (gp_Circ::*)() const) static_cast<const gp_Pnt & (gp_Circ::*)() const>(&gp_Circ::Location),
R"#(Returns the center of the circle. It is the "Location" point of the local coordinate system of the circle)#"
)
.def("Position",
(const gp_Ax2 & (gp_Circ::*)() const) static_cast<const gp_Ax2 & (gp_Circ::*)() const>(&gp_Circ::Position),
R"#(Returns the position of the circle. It is the local coordinate system of the circle.)#"
)
;
// Class gp_Circ2d from ./opencascade/gp_Circ2d.hxx
klass = m.attr("gp_Circ2d");
// nested enums
static_cast<py::class_<gp_Circ2d , shared_ptr<gp_Circ2d> >>(klass)
// constructors
.def(py::init< >() )
.def(py::init< const gp_Ax2d &,const Standard_Real,const Standard_Boolean >() , py::arg("theXAxis"), py::arg("theRadius"), py::arg("theIsSense")=static_cast<const Standard_Boolean>(Standard_True) )
.def(py::init< const gp_Ax22d &,const Standard_Real >() , py::arg("theAxis"), py::arg("theRadius") )
// custom constructors
// methods
.def("SetLocation",
(void (gp_Circ2d::*)( const gp_Pnt2d & ) ) static_cast<void (gp_Circ2d::*)( const gp_Pnt2d & ) >(&gp_Circ2d::SetLocation),
R"#(Changes the location point (center) of the circle.)#" , py::arg("theP")
)
.def("SetXAxis",
(void (gp_Circ2d::*)( const gp_Ax2d & ) ) static_cast<void (gp_Circ2d::*)( const gp_Ax2d & ) >(&gp_Circ2d::SetXAxis),
R"#(Changes the X axis of the circle.)#" , py::arg("theA")
)
.def("SetAxis",
(void (gp_Circ2d::*)( const gp_Ax22d & ) ) static_cast<void (gp_Circ2d::*)( const gp_Ax22d & ) >(&gp_Circ2d::SetAxis),
R"#(Changes the X axis of the circle.)#" , py::arg("theA")
)
.def("SetYAxis",
(void (gp_Circ2d::*)( const gp_Ax2d & ) ) static_cast<void (gp_Circ2d::*)( const gp_Ax2d & ) >(&gp_Circ2d::SetYAxis),
R"#(Changes the Y axis of the circle.)#" , py::arg("theA")
)
.def("SetRadius",
(void (gp_Circ2d::*)( const Standard_Real ) ) static_cast<void (gp_Circ2d::*)( const Standard_Real ) >(&gp_Circ2d::SetRadius),
R"#(Modifies the radius of this circle. This class does not prevent the creation of a circle where theRadius is null. Exceptions Standard_ConstructionError if theRadius is negative.)#" , py::arg("theRadius")
)
.def("Area",
(Standard_Real (gp_Circ2d::*)() const) static_cast<Standard_Real (gp_Circ2d::*)() const>(&gp_Circ2d::Area),
R"#(Computes the area of the circle.)#"
)
.def("Contains",
(Standard_Boolean (gp_Circ2d::*)( const gp_Pnt2d & , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Circ2d::*)( const gp_Pnt2d & , const Standard_Real ) const>(&gp_Circ2d::Contains),
R"#(Does <me> contain theP ? Returns True if the distance between theP and any point on the circumference of the circle is lower of equal to <theLinearTolerance>.)#" , py::arg("theP"), py::arg("theLinearTolerance")
)
.def("Distance",
(Standard_Real (gp_Circ2d::*)( const gp_Pnt2d & ) const) static_cast<Standard_Real (gp_Circ2d::*)( const gp_Pnt2d & ) const>(&gp_Circ2d::Distance),
R"#(Computes the minimum of distance between the point theP and any point on the circumference of the circle.)#" , py::arg("theP")
)
.def("SquareDistance",
(Standard_Real (gp_Circ2d::*)( const gp_Pnt2d & ) const) static_cast<Standard_Real (gp_Circ2d::*)( const gp_Pnt2d & ) const>(&gp_Circ2d::SquareDistance),
R"#(Computes the square distance between <me> and the point theP.)#" , py::arg("theP")
)
.def("Length",
(Standard_Real (gp_Circ2d::*)() const) static_cast<Standard_Real (gp_Circ2d::*)() const>(&gp_Circ2d::Length),
R"#(computes the circumference of the circle.)#"
)
.def("Radius",
(Standard_Real (gp_Circ2d::*)() const) static_cast<Standard_Real (gp_Circ2d::*)() const>(&gp_Circ2d::Radius),
R"#(Returns the radius value of the circle.)#"
)
.def("XAxis",
(gp_Ax2d (gp_Circ2d::*)() const) static_cast<gp_Ax2d (gp_Circ2d::*)() const>(&gp_Circ2d::XAxis),
R"#(returns the X axis of the circle.)#"
)
.def("YAxis",
(gp_Ax2d (gp_Circ2d::*)() const) static_cast<gp_Ax2d (gp_Circ2d::*)() const>(&gp_Circ2d::YAxis),
R"#(Returns the Y axis of the circle. Reverses the direction of the circle.)#"
)
.def("Reverse",
(void (gp_Circ2d::*)() ) static_cast<void (gp_Circ2d::*)() >(&gp_Circ2d::Reverse),
R"#(Reverses the orientation of the local coordinate system of this circle (the "Y Direction" is reversed) and therefore changes the implicit orientation of this circle. Reverse assigns the result to this circle,)#"
)
.def("Reversed",
(gp_Circ2d (gp_Circ2d::*)() const) static_cast<gp_Circ2d (gp_Circ2d::*)() const>(&gp_Circ2d::Reversed),
R"#(Reverses the orientation of the local coordinate system of this circle (the "Y Direction" is reversed) and therefore changes the implicit orientation of this circle. Reversed creates a new circle.)#"
)
.def("IsDirect",
(Standard_Boolean (gp_Circ2d::*)() const) static_cast<Standard_Boolean (gp_Circ2d::*)() const>(&gp_Circ2d::IsDirect),
R"#(Returns true if the local coordinate system is direct and false in the other case.)#"
)
.def("Mirror",
(void (gp_Circ2d::*)( const gp_Pnt2d & ) ) static_cast<void (gp_Circ2d::*)( const gp_Pnt2d & ) >(&gp_Circ2d::Mirror),
R"#(None)#" , py::arg("theP")
)
.def("Mirrored",
(gp_Circ2d (gp_Circ2d::*)( const gp_Pnt2d & ) const) static_cast<gp_Circ2d (gp_Circ2d::*)( const gp_Pnt2d & ) const>(&gp_Circ2d::Mirrored),
R"#(Performs the symmetrical transformation of a circle with respect to the point theP which is the center of the symmetry)#" , py::arg("theP")
)
.def("Mirror",
(void (gp_Circ2d::*)( const gp_Ax2d & ) ) static_cast<void (gp_Circ2d::*)( const gp_Ax2d & ) >(&gp_Circ2d::Mirror),
R"#(None)#" , py::arg("theA")
)
.def("Mirrored",
(gp_Circ2d (gp_Circ2d::*)( const gp_Ax2d & ) const) static_cast<gp_Circ2d (gp_Circ2d::*)( const gp_Ax2d & ) const>(&gp_Circ2d::Mirrored),
R"#(Performs the symmetrical transformation of a circle with respect to an axis placement which is the axis of the symmetry.)#" , py::arg("theA")
)
.def("Rotate",
(void (gp_Circ2d::*)( const gp_Pnt2d & , const Standard_Real ) ) static_cast<void (gp_Circ2d::*)( const gp_Pnt2d & , const Standard_Real ) >(&gp_Circ2d::Rotate),
R"#(None)#" , py::arg("theP"), py::arg("theAng")
)
.def("Rotated",
(gp_Circ2d (gp_Circ2d::*)( const gp_Pnt2d & , const Standard_Real ) const) static_cast<gp_Circ2d (gp_Circ2d::*)( const gp_Pnt2d & , const Standard_Real ) const>(&gp_Circ2d::Rotated),
R"#(Rotates a circle. theP is the center of the rotation. Ang is the angular value of the rotation in radians.)#" , py::arg("theP"), py::arg("theAng")
)
.def("Scale",
(void (gp_Circ2d::*)( const gp_Pnt2d & , const Standard_Real ) ) static_cast<void (gp_Circ2d::*)( const gp_Pnt2d & , const Standard_Real ) >(&gp_Circ2d::Scale),
R"#(None)#" , py::arg("theP"), py::arg("theS")
)
.def("Scaled",
(gp_Circ2d (gp_Circ2d::*)( const gp_Pnt2d & , const Standard_Real ) const) static_cast<gp_Circ2d (gp_Circ2d::*)( const gp_Pnt2d & , const Standard_Real ) const>(&gp_Circ2d::Scaled),
R"#(Scales a circle. theS is the scaling value. Warnings : If theS is negative the radius stay positive but the "XAxis" and the "YAxis" are reversed as for an ellipse.)#" , py::arg("theP"), py::arg("theS")
)
.def("Transform",
(void (gp_Circ2d::*)( const gp_Trsf2d & ) ) static_cast<void (gp_Circ2d::*)( const gp_Trsf2d & ) >(&gp_Circ2d::Transform),
R"#(None)#" , py::arg("theT")
)
.def("Transformed",
(gp_Circ2d (gp_Circ2d::*)( const gp_Trsf2d & ) const) static_cast<gp_Circ2d (gp_Circ2d::*)( const gp_Trsf2d & ) const>(&gp_Circ2d::Transformed),
R"#(Transforms a circle with the transformation theT from class Trsf2d.)#" , py::arg("theT")
)
.def("Translate",
(void (gp_Circ2d::*)( const gp_Vec2d & ) ) static_cast<void (gp_Circ2d::*)( const gp_Vec2d & ) >(&gp_Circ2d::Translate),
R"#(None)#" , py::arg("theV")
)
.def("Translated",
(gp_Circ2d (gp_Circ2d::*)( const gp_Vec2d & ) const) static_cast<gp_Circ2d (gp_Circ2d::*)( const gp_Vec2d & ) const>(&gp_Circ2d::Translated),
R"#(Translates a circle in the direction of the vector theV. The magnitude of the translation is the vector's magnitude.)#" , py::arg("theV")
)
.def("Translate",
(void (gp_Circ2d::*)( const gp_Pnt2d & , const gp_Pnt2d & ) ) static_cast<void (gp_Circ2d::*)( const gp_Pnt2d & , const gp_Pnt2d & ) >(&gp_Circ2d::Translate),
R"#(None)#" , py::arg("theP1"), py::arg("theP2")
)
.def("Translated",
(gp_Circ2d (gp_Circ2d::*)( const gp_Pnt2d & , const gp_Pnt2d & ) const) static_cast<gp_Circ2d (gp_Circ2d::*)( const gp_Pnt2d & , const gp_Pnt2d & ) const>(&gp_Circ2d::Translated),
R"#(Translates a circle from the point theP1 to the point theP2.)#" , py::arg("theP1"), py::arg("theP2")
)
.def("Distance",
(Standard_Real (gp_Circ2d::*)( const gp_Pnt2d & ) const) static_cast<Standard_Real (gp_Circ2d::*)( const gp_Pnt2d & ) const>(&gp_Circ2d::Distance),
R"#(Computes the minimum of distance between the point theP and any point on the circumference of the circle.)#" , py::arg("theP")
)
.def("Reversed",
(gp_Circ2d (gp_Circ2d::*)() const) static_cast<gp_Circ2d (gp_Circ2d::*)() const>(&gp_Circ2d::Reversed),
R"#(Reverses the orientation of the local coordinate system of this circle (the "Y Direction" is reversed) and therefore changes the implicit orientation of this circle. Reversed creates a new circle.)#"
)
.def("SquareDistance",
(Standard_Real (gp_Circ2d::*)( const gp_Pnt2d & ) const) static_cast<Standard_Real (gp_Circ2d::*)( const gp_Pnt2d & ) const>(&gp_Circ2d::SquareDistance),
R"#(Computes the square distance between <me> and the point theP.)#" , py::arg("theP")
)
.def("Scale",
(void (gp_Circ2d::*)( const gp_Pnt2d & , const Standard_Real ) ) static_cast<void (gp_Circ2d::*)( const gp_Pnt2d & , const Standard_Real ) >(&gp_Circ2d::Scale),
R"#(None)#" , py::arg("theP"), py::arg("theS")
)
.def("Scaled",
(gp_Circ2d (gp_Circ2d::*)( const gp_Pnt2d & , const Standard_Real ) const) static_cast<gp_Circ2d (gp_Circ2d::*)( const gp_Pnt2d & , const Standard_Real ) const>(&gp_Circ2d::Scaled),
R"#(Scales a circle. theS is the scaling value. Warnings : If theS is negative the radius stay positive but the "XAxis" and the "YAxis" are reversed as for an ellipse.)#" , py::arg("theP"), py::arg("theS")
)
.def("Transform",
(void (gp_Circ2d::*)( const gp_Trsf2d & ) ) static_cast<void (gp_Circ2d::*)( const gp_Trsf2d & ) >(&gp_Circ2d::Transform),
R"#(None)#" , py::arg("theT")
)
.def("Transformed",
(gp_Circ2d (gp_Circ2d::*)( const gp_Trsf2d & ) const) static_cast<gp_Circ2d (gp_Circ2d::*)( const gp_Trsf2d & ) const>(&gp_Circ2d::Transformed),
R"#(Transforms a circle with the transformation theT from class Trsf2d.)#" , py::arg("theT")
)
// methods using call by reference i.s.o. return
.def("Coefficients",
[]( gp_Circ2d &self ){
Standard_Real theA;
Standard_Real theB;
Standard_Real theC;
Standard_Real theD;
Standard_Real theE;
Standard_Real theF;
self.Coefficients(theA,theB,theC,theD,theE,theF);
return std::make_tuple(theA,theB,theC,theD,theE,theF); },
R"#(Returns the normalized coefficients from the implicit equation of the circle : theA * (X**2) + theB * (Y**2) + 2*theC*(X*Y) + 2*theD*X + 2*theE*Y + theF = 0.0)#"
)
.def("Coefficients",
[]( gp_Circ2d &self ){
Standard_Real theA;
Standard_Real theB;
Standard_Real theC;
Standard_Real theD;
Standard_Real theE;
Standard_Real theF;
self.Coefficients(theA,theB,theC,theD,theE,theF);
return std::make_tuple(theA,theB,theC,theD,theE,theF); },
R"#(Returns the normalized coefficients from the implicit equation of the circle : theA * (X**2) + theB * (Y**2) + 2*theC*(X*Y) + 2*theD*X + 2*theE*Y + theF = 0.0)#"
)
// static methods
// static methods using call by reference i.s.o. return
// operators
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
.def("Location",
(const gp_Pnt2d & (gp_Circ2d::*)() const) static_cast<const gp_Pnt2d & (gp_Circ2d::*)() const>(&gp_Circ2d::Location),
R"#(Returns the location point (center) of the circle.)#"
)
.def("Axis",
(const gp_Ax22d & (gp_Circ2d::*)() const) static_cast<const gp_Ax22d & (gp_Circ2d::*)() const>(&gp_Circ2d::Axis),
R"#(returns the position of the circle.)#"
)
.def("Position",
(const gp_Ax22d & (gp_Circ2d::*)() const) static_cast<const gp_Ax22d & (gp_Circ2d::*)() const>(&gp_Circ2d::Position),
R"#(returns the position of the circle. Idem Axis(me).)#"
)
;
// Class gp_Cone from ./opencascade/gp_Cone.hxx
klass = m.attr("gp_Cone");
// nested enums
static_cast<py::class_<gp_Cone , shared_ptr<gp_Cone> >>(klass)
// constructors
.def(py::init< >() )
.def(py::init< const gp_Ax3 &,const Standard_Real,const Standard_Real >() , py::arg("theA3"), py::arg("theAng"), py::arg("theRadius") )
// custom constructors
// methods
.def("SetAxis",
(void (gp_Cone::*)( const gp_Ax1 & ) ) static_cast<void (gp_Cone::*)( const gp_Ax1 & ) >(&gp_Cone::SetAxis),
R"#(Changes the symmetry axis of the cone. Raises ConstructionError the direction of theA1 is parallel to the "XDirection" of the coordinate system of the cone.)#" , py::arg("theA1")
)
.def("SetLocation",
(void (gp_Cone::*)( const gp_Pnt & ) ) static_cast<void (gp_Cone::*)( const gp_Pnt & ) >(&gp_Cone::SetLocation),
R"#(Changes the location of the cone.)#" , py::arg("theLoc")
)
.def("SetPosition",
(void (gp_Cone::*)( const gp_Ax3 & ) ) static_cast<void (gp_Cone::*)( const gp_Ax3 & ) >(&gp_Cone::SetPosition),
R"#(Changes the local coordinate system of the cone. This coordinate system defines the reference plane of the cone.)#" , py::arg("theA3")
)
.def("SetRadius",
(void (gp_Cone::*)( const Standard_Real ) ) static_cast<void (gp_Cone::*)( const Standard_Real ) >(&gp_Cone::SetRadius),
R"#(Changes the radius of the cone in the reference plane of the cone. Raised if theR < 0.0)#" , py::arg("theR")
)
.def("SetSemiAngle",
(void (gp_Cone::*)( const Standard_Real ) ) static_cast<void (gp_Cone::*)( const Standard_Real ) >(&gp_Cone::SetSemiAngle),
R"#(Changes the semi-angle of the cone. Semi-angle can be negative. Its absolute value Abs(theAng) is in range ]0,PI/2[. Raises ConstructionError if Abs(theAng) < Resolution from gp or Abs(theAng) >= PI/2 - Resolution)#" , py::arg("theAng")
)
.def("Apex",
(gp_Pnt (gp_Cone::*)() const) static_cast<gp_Pnt (gp_Cone::*)() const>(&gp_Cone::Apex),
R"#(Computes the cone's top. The Apex of the cone is on the negative side of the symmetry axis of the cone.)#"
)
.def("UReverse",
(void (gp_Cone::*)() ) static_cast<void (gp_Cone::*)() >(&gp_Cone::UReverse),
R"#(Reverses the U parametrization of the cone reversing the YAxis.)#"
)
.def("VReverse",
(void (gp_Cone::*)() ) static_cast<void (gp_Cone::*)() >(&gp_Cone::VReverse),
R"#(Reverses the V parametrization of the cone reversing the ZAxis.)#"
)
.def("Direct",
(Standard_Boolean (gp_Cone::*)() const) static_cast<Standard_Boolean (gp_Cone::*)() const>(&gp_Cone::Direct),
R"#(Returns true if the local coordinate system of this cone is right-handed.)#"
)
.def("RefRadius",
(Standard_Real (gp_Cone::*)() const) static_cast<Standard_Real (gp_Cone::*)() const>(&gp_Cone::RefRadius),
R"#(Returns the radius of the cone in the reference plane.)#"
)
.def("SemiAngle",
(Standard_Real (gp_Cone::*)() const) static_cast<Standard_Real (gp_Cone::*)() const>(&gp_Cone::SemiAngle),
R"#(Returns the half-angle at the apex of this cone. Attention! Semi-angle can be negative.)#"
)
.def("XAxis",
(gp_Ax1 (gp_Cone::*)() const) static_cast<gp_Ax1 (gp_Cone::*)() const>(&gp_Cone::XAxis),
R"#(Returns the XAxis of the reference plane.)#"
)
.def("YAxis",
(gp_Ax1 (gp_Cone::*)() const) static_cast<gp_Ax1 (gp_Cone::*)() const>(&gp_Cone::YAxis),
R"#(Returns the YAxis of the reference plane.)#"
)
.def("Mirror",
(void (gp_Cone::*)( const gp_Pnt & ) ) static_cast<void (gp_Cone::*)( const gp_Pnt & ) >(&gp_Cone::Mirror),
R"#(None)#" , py::arg("theP")
)
.def("Mirrored",
(gp_Cone (gp_Cone::*)( const gp_Pnt & ) const) static_cast<gp_Cone (gp_Cone::*)( const gp_Pnt & ) const>(&gp_Cone::Mirrored),
R"#(Performs the symmetrical transformation of a cone with respect to the point theP which is the center of the symmetry.)#" , py::arg("theP")
)
.def("Mirror",
(void (gp_Cone::*)( const gp_Ax1 & ) ) static_cast<void (gp_Cone::*)( const gp_Ax1 & ) >(&gp_Cone::Mirror),
R"#(None)#" , py::arg("theA1")
)
.def("Mirrored",
(gp_Cone (gp_Cone::*)( const gp_Ax1 & ) const) static_cast<gp_Cone (gp_Cone::*)( const gp_Ax1 & ) const>(&gp_Cone::Mirrored),
R"#(Performs the symmetrical transformation of a cone with respect to an axis placement which is the axis of the symmetry.)#" , py::arg("theA1")
)
.def("Mirror",
(void (gp_Cone::*)( const gp_Ax2 & ) ) static_cast<void (gp_Cone::*)( const gp_Ax2 & ) >(&gp_Cone::Mirror),
R"#(None)#" , py::arg("theA2")
)
.def("Mirrored",
(gp_Cone (gp_Cone::*)( const gp_Ax2 & ) const) static_cast<gp_Cone (gp_Cone::*)( const gp_Ax2 & ) const>(&gp_Cone::Mirrored),
R"#(Performs the symmetrical transformation of a cone with respect to a plane. The axis placement theA2 locates the plane of the of the symmetry : (Location, XDirection, YDirection).)#" , py::arg("theA2")
)
.def("Rotate",
(void (gp_Cone::*)( const gp_Ax1 & , const Standard_Real ) ) static_cast<void (gp_Cone::*)( const gp_Ax1 & , const Standard_Real ) >(&gp_Cone::Rotate),
R"#(None)#" , py::arg("theA1"), py::arg("theAng")
)
.def("Rotated",
(gp_Cone (gp_Cone::*)( const gp_Ax1 & , const Standard_Real ) const) static_cast<gp_Cone (gp_Cone::*)( const gp_Ax1 & , const Standard_Real ) const>(&gp_Cone::Rotated),
R"#(Rotates a cone. theA1 is the axis of the rotation. Ang is the angular value of the rotation in radians.)#" , py::arg("theA1"), py::arg("theAng")
)
.def("Scale",
(void (gp_Cone::*)( const gp_Pnt & , const Standard_Real ) ) static_cast<void (gp_Cone::*)( const gp_Pnt & , const Standard_Real ) >(&gp_Cone::Scale),
R"#(None)#" , py::arg("theP"), py::arg("theS")
)
.def("Scaled",
(gp_Cone (gp_Cone::*)( const gp_Pnt & , const Standard_Real ) const) static_cast<gp_Cone (gp_Cone::*)( const gp_Pnt & , const Standard_Real ) const>(&gp_Cone::Scaled),
R"#(Scales a cone. theS is the scaling value. The absolute value of theS is used to scale the cone)#" , py::arg("theP"), py::arg("theS")
)
.def("Transform",
(void (gp_Cone::*)( const gp_Trsf & ) ) static_cast<void (gp_Cone::*)( const gp_Trsf & ) >(&gp_Cone::Transform),
R"#(None)#" , py::arg("theT")
)
.def("Transformed",
(gp_Cone (gp_Cone::*)( const gp_Trsf & ) const) static_cast<gp_Cone (gp_Cone::*)( const gp_Trsf & ) const>(&gp_Cone::Transformed),
R"#(Transforms a cone with the transformation theT from class Trsf.)#" , py::arg("theT")
)
.def("Translate",
(void (gp_Cone::*)( const gp_Vec & ) ) static_cast<void (gp_Cone::*)( const gp_Vec & ) >(&gp_Cone::Translate),
R"#(None)#" , py::arg("theV")
)
.def("Translated",
(gp_Cone (gp_Cone::*)( const gp_Vec & ) const) static_cast<gp_Cone (gp_Cone::*)( const gp_Vec & ) const>(&gp_Cone::Translated),
R"#(Translates a cone in the direction of the vector theV. The magnitude of the translation is the vector's magnitude.)#" , py::arg("theV")
)
.def("Translate",
(void (gp_Cone::*)( const gp_Pnt & , const gp_Pnt & ) ) static_cast<void (gp_Cone::*)( const gp_Pnt & , const gp_Pnt & ) >(&gp_Cone::Translate),
R"#(None)#" , py::arg("theP1"), py::arg("theP2")
)
.def("Translated",
(gp_Cone (gp_Cone::*)( const gp_Pnt & , const gp_Pnt & ) const) static_cast<gp_Cone (gp_Cone::*)( const gp_Pnt & , const gp_Pnt & ) const>(&gp_Cone::Translated),
R"#(Translates a cone from the point P1 to the point P2.)#" , py::arg("theP1"), py::arg("theP2")
)
.def("SetSemiAngle",
(void (gp_Cone::*)( const Standard_Real ) ) static_cast<void (gp_Cone::*)( const Standard_Real ) >(&gp_Cone::SetSemiAngle),
R"#(Changes the semi-angle of the cone. Semi-angle can be negative. Its absolute value Abs(theAng) is in range ]0,PI/2[. Raises ConstructionError if Abs(theAng) < Resolution from gp or Abs(theAng) >= PI/2 - Resolution)#" , py::arg("theAng")
)
.def("Scale",
(void (gp_Cone::*)( const gp_Pnt & , const Standard_Real ) ) static_cast<void (gp_Cone::*)( const gp_Pnt & , const Standard_Real ) >(&gp_Cone::Scale),
R"#(None)#" , py::arg("theP"), py::arg("theS")
)
.def("Scaled",
(gp_Cone (gp_Cone::*)( const gp_Pnt & , const Standard_Real ) const) static_cast<gp_Cone (gp_Cone::*)( const gp_Pnt & , const Standard_Real ) const>(&gp_Cone::Scaled),
R"#(Scales a cone. theS is the scaling value. The absolute value of theS is used to scale the cone)#" , py::arg("theP"), py::arg("theS")
)
.def("Transform",
(void (gp_Cone::*)( const gp_Trsf & ) ) static_cast<void (gp_Cone::*)( const gp_Trsf & ) >(&gp_Cone::Transform),
R"#(None)#" , py::arg("theT")
)
.def("Transformed",
(gp_Cone (gp_Cone::*)( const gp_Trsf & ) const) static_cast<gp_Cone (gp_Cone::*)( const gp_Trsf & ) const>(&gp_Cone::Transformed),
R"#(Transforms a cone with the transformation theT from class Trsf.)#" , py::arg("theT")
)
// methods using call by reference i.s.o. return
.def("Coefficients",
[]( gp_Cone &self ){
Standard_Real theA1;
Standard_Real theA2;
Standard_Real theA3;
Standard_Real theB1;
Standard_Real theB2;
Standard_Real theB3;
Standard_Real theC1;
Standard_Real theC2;
Standard_Real theC3;
Standard_Real theD;
self.Coefficients(theA1,theA2,theA3,theB1,theB2,theB3,theC1,theC2,theC3,theD);
return std::make_tuple(theA1,theA2,theA3,theB1,theB2,theB3,theC1,theC2,theC3,theD); },
R"#(Computes the coefficients of the implicit equation of the quadric in the absolute cartesian coordinates system : theA1.X**2 + theA2.Y**2 + theA3.Z**2 + 2.(theB1.X.Y + theB2.X.Z + theB3.Y.Z) + 2.(theC1.X + theC2.Y + theC3.Z) + theD = 0.0)#"
)
// static methods
// static methods using call by reference i.s.o. return
// operators
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
.def("Axis",
(const gp_Ax1 & (gp_Cone::*)() const) static_cast<const gp_Ax1 & (gp_Cone::*)() const>(&gp_Cone::Axis),
R"#(returns the symmetry axis of the cone.)#"
)
.def("Location",
(const gp_Pnt & (gp_Cone::*)() const) static_cast<const gp_Pnt & (gp_Cone::*)() const>(&gp_Cone::Location),
R"#(returns the "Location" point of the cone.)#"
)
.def("Position",
(const gp_Ax3 & (gp_Cone::*)() const) static_cast<const gp_Ax3 & (gp_Cone::*)() const>(&gp_Cone::Position),
R"#(Returns the local coordinates system of the cone.)#"
)
;
// Class gp_Cylinder from ./opencascade/gp_Cylinder.hxx
klass = m.attr("gp_Cylinder");
// nested enums
static_cast<py::class_<gp_Cylinder , shared_ptr<gp_Cylinder> >>(klass)
// constructors
.def(py::init< >() )
.def(py::init< const gp_Ax3 &,const Standard_Real >() , py::arg("theA3"), py::arg("theRadius") )
// custom constructors
// methods
.def("SetAxis",
(void (gp_Cylinder::*)( const gp_Ax1 & ) ) static_cast<void (gp_Cylinder::*)( const gp_Ax1 & ) >(&gp_Cylinder::SetAxis),
R"#(Changes the symmetry axis of the cylinder. Raises ConstructionError if the direction of theA1 is parallel to the "XDirection" of the coordinate system of the cylinder.)#" , py::arg("theA1")
)
.def("SetLocation",
(void (gp_Cylinder::*)( const gp_Pnt & ) ) static_cast<void (gp_Cylinder::*)( const gp_Pnt & ) >(&gp_Cylinder::SetLocation),
R"#(Changes the location of the surface.)#" , py::arg("theLoc")
)
.def("SetPosition",
(void (gp_Cylinder::*)( const gp_Ax3 & ) ) static_cast<void (gp_Cylinder::*)( const gp_Ax3 & ) >(&gp_Cylinder::SetPosition),
R"#(Change the local coordinate system of the surface.)#" , py::arg("theA3")
)
.def("SetRadius",
(void (gp_Cylinder::*)( const Standard_Real ) ) static_cast<void (gp_Cylinder::*)( const Standard_Real ) >(&gp_Cylinder::SetRadius),
R"#(Modifies the radius of this cylinder. Exceptions Standard_ConstructionError if theR is negative.)#" , py::arg("theR")
)
.def("UReverse",
(void (gp_Cylinder::*)() ) static_cast<void (gp_Cylinder::*)() >(&gp_Cylinder::UReverse),
R"#(Reverses the U parametrization of the cylinder reversing the YAxis.)#"
)
.def("VReverse",
(void (gp_Cylinder::*)() ) static_cast<void (gp_Cylinder::*)() >(&gp_Cylinder::VReverse),
R"#(Reverses the V parametrization of the plane reversing the Axis.)#"
)
.def("Direct",
(Standard_Boolean (gp_Cylinder::*)() const) static_cast<Standard_Boolean (gp_Cylinder::*)() const>(&gp_Cylinder::Direct),
R"#(Returns true if the local coordinate system of this cylinder is right-handed.)#"
)
.def("Radius",
(Standard_Real (gp_Cylinder::*)() const) static_cast<Standard_Real (gp_Cylinder::*)() const>(&gp_Cylinder::Radius),
R"#(Returns the radius of the cylinder.)#"
)
.def("XAxis",
(gp_Ax1 (gp_Cylinder::*)() const) static_cast<gp_Ax1 (gp_Cylinder::*)() const>(&gp_Cylinder::XAxis),
R"#(Returns the axis X of the cylinder.)#"
)
.def("YAxis",
(gp_Ax1 (gp_Cylinder::*)() const) static_cast<gp_Ax1 (gp_Cylinder::*)() const>(&gp_Cylinder::YAxis),
R"#(Returns the axis Y of the cylinder.)#"
)
.def("Mirror",
(void (gp_Cylinder::*)( const gp_Pnt & ) ) static_cast<void (gp_Cylinder::*)( const gp_Pnt & ) >(&gp_Cylinder::Mirror),
R"#(None)#" , py::arg("theP")
)
.def("Mirrored",
(gp_Cylinder (gp_Cylinder::*)( const gp_Pnt & ) const) static_cast<gp_Cylinder (gp_Cylinder::*)( const gp_Pnt & ) const>(&gp_Cylinder::Mirrored),
R"#(Performs the symmetrical transformation of a cylinder with respect to the point theP which is the center of the symmetry.)#" , py::arg("theP")
)
.def("Mirror",
(void (gp_Cylinder::*)( const gp_Ax1 & ) ) static_cast<void (gp_Cylinder::*)( const gp_Ax1 & ) >(&gp_Cylinder::Mirror),
R"#(None)#" , py::arg("theA1")
)
.def("Mirrored",
(gp_Cylinder (gp_Cylinder::*)( const gp_Ax1 & ) const) static_cast<gp_Cylinder (gp_Cylinder::*)( const gp_Ax1 & ) const>(&gp_Cylinder::Mirrored),
R"#(Performs the symmetrical transformation of a cylinder with respect to an axis placement which is the axis of the symmetry.)#" , py::arg("theA1")
)
.def("Mirror",
(void (gp_Cylinder::*)( const gp_Ax2 & ) ) static_cast<void (gp_Cylinder::*)( const gp_Ax2 & ) >(&gp_Cylinder::Mirror),
R"#(None)#" , py::arg("theA2")
)
.def("Mirrored",
(gp_Cylinder (gp_Cylinder::*)( const gp_Ax2 & ) const) static_cast<gp_Cylinder (gp_Cylinder::*)( const gp_Ax2 & ) const>(&gp_Cylinder::Mirrored),
R"#(Performs the symmetrical transformation of a cylinder with respect to a plane. The axis placement theA2 locates the plane of the of the symmetry : (Location, XDirection, YDirection).)#" , py::arg("theA2")
)
.def("Rotate",
(void (gp_Cylinder::*)( const gp_Ax1 & , const Standard_Real ) ) static_cast<void (gp_Cylinder::*)( const gp_Ax1 & , const Standard_Real ) >(&gp_Cylinder::Rotate),
R"#(None)#" , py::arg("theA1"), py::arg("theAng")
)
.def("Rotated",
(gp_Cylinder (gp_Cylinder::*)( const gp_Ax1 & , const Standard_Real ) const) static_cast<gp_Cylinder (gp_Cylinder::*)( const gp_Ax1 & , const Standard_Real ) const>(&gp_Cylinder::Rotated),
R"#(Rotates a cylinder. theA1 is the axis of the rotation. theAng is the angular value of the rotation in radians.)#" , py::arg("theA1"), py::arg("theAng")
)
.def("Scale",
(void (gp_Cylinder::*)( const gp_Pnt & , const Standard_Real ) ) static_cast<void (gp_Cylinder::*)( const gp_Pnt & , const Standard_Real ) >(&gp_Cylinder::Scale),
R"#(None)#" , py::arg("theP"), py::arg("theS")
)
.def("Scaled",
(gp_Cylinder (gp_Cylinder::*)( const gp_Pnt & , const Standard_Real ) const) static_cast<gp_Cylinder (gp_Cylinder::*)( const gp_Pnt & , const Standard_Real ) const>(&gp_Cylinder::Scaled),
R"#(Scales a cylinder. theS is the scaling value. The absolute value of theS is used to scale the cylinder)#" , py::arg("theP"), py::arg("theS")
)
.def("Transform",
(void (gp_Cylinder::*)( const gp_Trsf & ) ) static_cast<void (gp_Cylinder::*)( const gp_Trsf & ) >(&gp_Cylinder::Transform),
R"#(None)#" , py::arg("theT")
)
.def("Transformed",
(gp_Cylinder (gp_Cylinder::*)( const gp_Trsf & ) const) static_cast<gp_Cylinder (gp_Cylinder::*)( const gp_Trsf & ) const>(&gp_Cylinder::Transformed),
R"#(Transforms a cylinder with the transformation theT from class Trsf.)#" , py::arg("theT")
)
.def("Translate",
(void (gp_Cylinder::*)( const gp_Vec & ) ) static_cast<void (gp_Cylinder::*)( const gp_Vec & ) >(&gp_Cylinder::Translate),
R"#(None)#" , py::arg("theV")
)
.def("Translated",
(gp_Cylinder (gp_Cylinder::*)( const gp_Vec & ) const) static_cast<gp_Cylinder (gp_Cylinder::*)( const gp_Vec & ) const>(&gp_Cylinder::Translated),
R"#(Translates a cylinder in the direction of the vector theV. The magnitude of the translation is the vector's magnitude.)#" , py::arg("theV")
)
.def("Translate",
(void (gp_Cylinder::*)( const gp_Pnt & , const gp_Pnt & ) ) static_cast<void (gp_Cylinder::*)( const gp_Pnt & , const gp_Pnt & ) >(&gp_Cylinder::Translate),
R"#(None)#" , py::arg("theP1"), py::arg("theP2")
)
.def("Translated",
(gp_Cylinder (gp_Cylinder::*)( const gp_Pnt & , const gp_Pnt & ) const) static_cast<gp_Cylinder (gp_Cylinder::*)( const gp_Pnt & , const gp_Pnt & ) const>(&gp_Cylinder::Translated),
R"#(Translates a cylinder from the point theP1 to the point theP2.)#" , py::arg("theP1"), py::arg("theP2")
)
.def("Scale",
(void (gp_Cylinder::*)( const gp_Pnt & , const Standard_Real ) ) static_cast<void (gp_Cylinder::*)( const gp_Pnt & , const Standard_Real ) >(&gp_Cylinder::Scale),
R"#(None)#" , py::arg("theP"), py::arg("theS")
)
.def("Scaled",
(gp_Cylinder (gp_Cylinder::*)( const gp_Pnt & , const Standard_Real ) const) static_cast<gp_Cylinder (gp_Cylinder::*)( const gp_Pnt & , const Standard_Real ) const>(&gp_Cylinder::Scaled),
R"#(Scales a cylinder. theS is the scaling value. The absolute value of theS is used to scale the cylinder)#" , py::arg("theP"), py::arg("theS")
)
.def("Transform",
(void (gp_Cylinder::*)( const gp_Trsf & ) ) static_cast<void (gp_Cylinder::*)( const gp_Trsf & ) >(&gp_Cylinder::Transform),
R"#(None)#" , py::arg("theT")
)
.def("Transformed",
(gp_Cylinder (gp_Cylinder::*)( const gp_Trsf & ) const) static_cast<gp_Cylinder (gp_Cylinder::*)( const gp_Trsf & ) const>(&gp_Cylinder::Transformed),
R"#(Transforms a cylinder with the transformation theT from class Trsf.)#" , py::arg("theT")
)
// methods using call by reference i.s.o. return
.def("Coefficients",
[]( gp_Cylinder &self ){
Standard_Real theA1;
Standard_Real theA2;
Standard_Real theA3;
Standard_Real theB1;
Standard_Real theB2;
Standard_Real theB3;
Standard_Real theC1;
Standard_Real theC2;
Standard_Real theC3;
Standard_Real theD;
self.Coefficients(theA1,theA2,theA3,theB1,theB2,theB3,theC1,theC2,theC3,theD);
return std::make_tuple(theA1,theA2,theA3,theB1,theB2,theB3,theC1,theC2,theC3,theD); },
R"#(Computes the coefficients of the implicit equation of the quadric in the absolute cartesian coordinate system : theA1.X**2 + theA2.Y**2 + theA3.Z**2 + 2.(theB1.X.Y + theB2.X.Z + theB3.Y.Z) + 2.(theC1.X + theC2.Y + theC3.Z) + theD = 0.0)#"
)
// static methods
// static methods using call by reference i.s.o. return
// operators
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
.def("Axis",
(const gp_Ax1 & (gp_Cylinder::*)() const) static_cast<const gp_Ax1 & (gp_Cylinder::*)() const>(&gp_Cylinder::Axis),
R"#(Returns the symmetry axis of the cylinder.)#"
)
.def("Location",
(const gp_Pnt & (gp_Cylinder::*)() const) static_cast<const gp_Pnt & (gp_Cylinder::*)() const>(&gp_Cylinder::Location),
R"#(Returns the "Location" point of the cylinder.)#"
)
.def("Position",
(const gp_Ax3 & (gp_Cylinder::*)() const) static_cast<const gp_Ax3 & (gp_Cylinder::*)() const>(&gp_Cylinder::Position),
R"#(Returns the local coordinate system of the cylinder.)#"
)
;
// Class gp_Dir from ./opencascade/gp_Dir.hxx
klass = m.attr("gp_Dir");
// nested enums
static_cast<py::class_<gp_Dir , shared_ptr<gp_Dir> >>(klass)
// constructors
.def(py::init< >() )
.def(py::init< const gp_Vec & >() , py::arg("theV") )
.def(py::init< const gp_XYZ & >() , py::arg("theCoord") )
.def(py::init< const Standard_Real,const Standard_Real,const Standard_Real >() , py::arg("theXv"), py::arg("theYv"), py::arg("theZv") )
// custom constructors
// methods
.def("SetCoord",
(void (gp_Dir::*)( const Standard_Integer , const Standard_Real ) ) static_cast<void (gp_Dir::*)( const Standard_Integer , const Standard_Real ) >(&gp_Dir::SetCoord),
R"#(For this unit vector, assigns the value Xi to: - the X coordinate if theIndex is 1, or - the Y coordinate if theIndex is 2, or - the Z coordinate if theIndex is 3, and then normalizes it. Warning Remember that all the coordinates of a unit vector are implicitly modified when any single one is changed directly. Exceptions Standard_OutOfRange if theIndex is not 1, 2, or 3. Standard_ConstructionError if either of the following is less than or equal to gp::Resolution(): - Sqrt(Xv*Xv + Yv*Yv + Zv*Zv), or - the modulus of the number triple formed by the new value theXi and the two other coordinates of this vector that were not directly modified.)#" , py::arg("theIndex"), py::arg("theXi")
)
.def("SetCoord",
(void (gp_Dir::*)( const Standard_Real , const Standard_Real , const Standard_Real ) ) static_cast<void (gp_Dir::*)( const Standard_Real , const Standard_Real , const Standard_Real ) >(&gp_Dir::SetCoord),
R"#(For this unit vector, assigns the values theXv, theYv and theZv to its three coordinates. Remember that all the coordinates of a unit vector are implicitly modified when any single one is changed directly.)#" , py::arg("theXv"), py::arg("theYv"), py::arg("theZv")
)
.def("SetX",
(void (gp_Dir::*)( const Standard_Real ) ) static_cast<void (gp_Dir::*)( const Standard_Real ) >(&gp_Dir::SetX),
R"#(Assigns the given value to the X coordinate of this unit vector.)#" , py::arg("theX")
)
.def("SetY",
(void (gp_Dir::*)( const Standard_Real ) ) static_cast<void (gp_Dir::*)( const Standard_Real ) >(&gp_Dir::SetY),
R"#(Assigns the given value to the Y coordinate of this unit vector.)#" , py::arg("theY")
)
.def("SetZ",
(void (gp_Dir::*)( const Standard_Real ) ) static_cast<void (gp_Dir::*)( const Standard_Real ) >(&gp_Dir::SetZ),
R"#(Assigns the given value to the Z coordinate of this unit vector.)#" , py::arg("theZ")
)
.def("SetXYZ",
(void (gp_Dir::*)( const gp_XYZ & ) ) static_cast<void (gp_Dir::*)( const gp_XYZ & ) >(&gp_Dir::SetXYZ),
R"#(Assigns the three coordinates of theCoord to this unit vector.)#" , py::arg("theCoord")
)
.def("Coord",
(Standard_Real (gp_Dir::*)( const Standard_Integer ) const) static_cast<Standard_Real (gp_Dir::*)( const Standard_Integer ) const>(&gp_Dir::Coord),
R"#(Returns the coordinate of range theIndex : theIndex = 1 => X is returned Ithendex = 2 => Y is returned theIndex = 3 => Z is returned Exceptions Standard_OutOfRange if theIndex is not 1, 2, or 3.)#" , py::arg("theIndex")
)
.def("X",
(Standard_Real (gp_Dir::*)() const) static_cast<Standard_Real (gp_Dir::*)() const>(&gp_Dir::X),
R"#(Returns the X coordinate for a unit vector.)#"
)
.def("Y",
(Standard_Real (gp_Dir::*)() const) static_cast<Standard_Real (gp_Dir::*)() const>(&gp_Dir::Y),
R"#(Returns the Y coordinate for a unit vector.)#"
)
.def("Z",
(Standard_Real (gp_Dir::*)() const) static_cast<Standard_Real (gp_Dir::*)() const>(&gp_Dir::Z),
R"#(Returns the Z coordinate for a unit vector.)#"
)
.def("IsEqual",
(Standard_Boolean (gp_Dir::*)( const gp_Dir & , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Dir::*)( const gp_Dir & , const Standard_Real ) const>(&gp_Dir::IsEqual),
R"#(Returns True if the angle between the two directions is lower or equal to theAngularTolerance.)#" , py::arg("theOther"), py::arg("theAngularTolerance")
)
.def("IsNormal",
(Standard_Boolean (gp_Dir::*)( const gp_Dir & , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Dir::*)( const gp_Dir & , const Standard_Real ) const>(&gp_Dir::IsNormal),
R"#(Returns True if the angle between this unit vector and the unit vector theOther is equal to Pi/2 (normal).)#" , py::arg("theOther"), py::arg("theAngularTolerance")
)
.def("IsOpposite",
(Standard_Boolean (gp_Dir::*)( const gp_Dir & , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Dir::*)( const gp_Dir & , const Standard_Real ) const>(&gp_Dir::IsOpposite),
R"#(Returns True if the angle between this unit vector and the unit vector theOther is equal to Pi (opposite).)#" , py::arg("theOther"), py::arg("theAngularTolerance")
)
.def("IsParallel",
(Standard_Boolean (gp_Dir::*)( const gp_Dir & , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Dir::*)( const gp_Dir & , const Standard_Real ) const>(&gp_Dir::IsParallel),
R"#(Returns true if the angle between this unit vector and the unit vector theOther is equal to 0 or to Pi. Note: the tolerance criterion is given by theAngularTolerance.)#" , py::arg("theOther"), py::arg("theAngularTolerance")
)
.def("Angle",
(Standard_Real (gp_Dir::*)( const gp_Dir & ) const) static_cast<Standard_Real (gp_Dir::*)( const gp_Dir & ) const>(&gp_Dir::Angle),
R"#(Computes the angular value in radians between <me> and <theOther>. This value is always positive in 3D space. Returns the angle in the range [0, PI])#" , py::arg("theOther")
)
.def("AngleWithRef",
(Standard_Real (gp_Dir::*)( const gp_Dir & , const gp_Dir & ) const) static_cast<Standard_Real (gp_Dir::*)( const gp_Dir & , const gp_Dir & ) const>(&gp_Dir::AngleWithRef),
R"#(Computes the angular value between <me> and <theOther>. <theVRef> is the direction of reference normal to <me> and <theOther> and its orientation gives the positive sense of rotation. If the cross product <me> ^ <theOther> has the same orientation as <theVRef> the angular value is positive else negative. Returns the angular value in the range -PI and PI (in radians). Raises DomainError if <me> and <theOther> are not parallel this exception is raised when <theVRef> is in the same plane as <me> and <theOther> The tolerance criterion is Resolution from package gp.)#" , py::arg("theOther"), py::arg("theVRef")
)
.def("Cross",
(void (gp_Dir::*)( const gp_Dir & ) ) static_cast<void (gp_Dir::*)( const gp_Dir & ) >(&gp_Dir::Cross),
R"#(Computes the cross product between two directions Raises the exception ConstructionError if the two directions are parallel because the computed vector cannot be normalized to create a direction.)#" , py::arg("theRight")
)
.def("Crossed",
(gp_Dir (gp_Dir::*)( const gp_Dir & ) const) static_cast<gp_Dir (gp_Dir::*)( const gp_Dir & ) const>(&gp_Dir::Crossed),
R"#(Computes the triple vector product. <me> ^ (V1 ^ V2) Raises the exception ConstructionError if V1 and V2 are parallel or <me> and (V1^V2) are parallel because the computed vector can't be normalized to create a direction.)#" , py::arg("theRight")
)
.def("CrossCross",
(void (gp_Dir::*)( const gp_Dir & , const gp_Dir & ) ) static_cast<void (gp_Dir::*)( const gp_Dir & , const gp_Dir & ) >(&gp_Dir::CrossCross),
R"#(None)#" , py::arg("theV1"), py::arg("theV2")
)
.def("CrossCrossed",
(gp_Dir (gp_Dir::*)( const gp_Dir & , const gp_Dir & ) const) static_cast<gp_Dir (gp_Dir::*)( const gp_Dir & , const gp_Dir & ) const>(&gp_Dir::CrossCrossed),
R"#(Computes the double vector product this ^ (theV1 ^ theV2). - CrossCrossed creates a new unit vector. Exceptions Standard_ConstructionError if: - theV1 and theV2 are parallel, or - this unit vector and (theV1 ^ theV2) are parallel. This is because, in these conditions, the computed vector is null and cannot be normalized.)#" , py::arg("theV1"), py::arg("theV2")
)
.def("Dot",
(Standard_Real (gp_Dir::*)( const gp_Dir & ) const) static_cast<Standard_Real (gp_Dir::*)( const gp_Dir & ) const>(&gp_Dir::Dot),
R"#(Computes the scalar product)#" , py::arg("theOther")
)
.def("DotCross",
(Standard_Real (gp_Dir::*)( const gp_Dir & , const gp_Dir & ) const) static_cast<Standard_Real (gp_Dir::*)( const gp_Dir & , const gp_Dir & ) const>(&gp_Dir::DotCross),
R"#(Computes the triple scalar product <me> * (theV1 ^ theV2). Warnings : The computed vector theV1' = theV1 ^ theV2 is not normalized to create a unitary vector. So this method never raises an exception even if theV1 and theV2 are parallel.)#" , py::arg("theV1"), py::arg("theV2")
)
.def("Reverse",
(void (gp_Dir::*)() ) static_cast<void (gp_Dir::*)() >(&gp_Dir::Reverse),
R"#(None)#"
)
.def("Reversed",
(gp_Dir (gp_Dir::*)() const) static_cast<gp_Dir (gp_Dir::*)() const>(&gp_Dir::Reversed),
R"#(Reverses the orientation of a direction geometric transformations Performs the symmetrical transformation of a direction with respect to the direction V which is the center of the symmetry.])#"
)
.def("Mirror",
(void (gp_Dir::*)( const gp_Dir & ) ) static_cast<void (gp_Dir::*)( const gp_Dir & ) >(&gp_Dir::Mirror),
R"#(None)#" , py::arg("theV")
)
.def("Mirrored",
(gp_Dir (gp_Dir::*)( const gp_Dir & ) const) static_cast<gp_Dir (gp_Dir::*)( const gp_Dir & ) const>(&gp_Dir::Mirrored),
R"#(Performs the symmetrical transformation of a direction with respect to the direction theV which is the center of the symmetry.)#" , py::arg("theV")
)
.def("Mirror",
(void (gp_Dir::*)( const gp_Ax1 & ) ) static_cast<void (gp_Dir::*)( const gp_Ax1 & ) >(&gp_Dir::Mirror),
R"#(None)#" , py::arg("theA1")
)
.def("Mirrored",
(gp_Dir (gp_Dir::*)( const gp_Ax1 & ) const) static_cast<gp_Dir (gp_Dir::*)( const gp_Ax1 & ) const>(&gp_Dir::Mirrored),
R"#(Performs the symmetrical transformation of a direction with respect to an axis placement which is the axis of the symmetry.)#" , py::arg("theA1")
)
.def("Mirror",
(void (gp_Dir::*)( const gp_Ax2 & ) ) static_cast<void (gp_Dir::*)( const gp_Ax2 & ) >(&gp_Dir::Mirror),
R"#(None)#" , py::arg("theA2")
)
.def("Mirrored",
(gp_Dir (gp_Dir::*)( const gp_Ax2 & ) const) static_cast<gp_Dir (gp_Dir::*)( const gp_Ax2 & ) const>(&gp_Dir::Mirrored),
R"#(Performs the symmetrical transformation of a direction with respect to a plane. The axis placement theA2 locates the plane of the symmetry : (Location, XDirection, YDirection).)#" , py::arg("theA2")
)
.def("Rotate",
(void (gp_Dir::*)( const gp_Ax1 & , const Standard_Real ) ) static_cast<void (gp_Dir::*)( const gp_Ax1 & , const Standard_Real ) >(&gp_Dir::Rotate),
R"#(None)#" , py::arg("theA1"), py::arg("theAng")
)
.def("Rotated",
(gp_Dir (gp_Dir::*)( const gp_Ax1 & , const Standard_Real ) const) static_cast<gp_Dir (gp_Dir::*)( const gp_Ax1 & , const Standard_Real ) const>(&gp_Dir::Rotated),
R"#(Rotates a direction. theA1 is the axis of the rotation. theAng is the angular value of the rotation in radians.)#" , py::arg("theA1"), py::arg("theAng")
)
.def("Transform",
(void (gp_Dir::*)( const gp_Trsf & ) ) static_cast<void (gp_Dir::*)( const gp_Trsf & ) >(&gp_Dir::Transform),
R"#(None)#" , py::arg("theT")
)
.def("Transformed",
(gp_Dir (gp_Dir::*)( const gp_Trsf & ) const) static_cast<gp_Dir (gp_Dir::*)( const gp_Trsf & ) const>(&gp_Dir::Transformed),
R"#(Transforms a direction with a "Trsf" from gp. Warnings : If the scale factor of the "Trsf" theT is negative then the direction <me> is reversed.)#" , py::arg("theT")
)
.def("DumpJson",
(void (gp_Dir::*)( std::ostream & , Standard_Integer ) const) static_cast<void (gp_Dir::*)( std::ostream & , Standard_Integer ) const>(&gp_Dir::DumpJson),
R"#(Dumps the content of me into the stream)#" , py::arg("theOStream"), py::arg("theDepth")=static_cast<Standard_Integer>(- 1)
)
.def("InitFromJson",
(Standard_Boolean (gp_Dir::*)( const std::stringstream & , Standard_Integer & ) ) static_cast<Standard_Boolean (gp_Dir::*)( const std::stringstream & , Standard_Integer & ) >(&gp_Dir::InitFromJson),
R"#(Inits the content of me from the stream)#" , py::arg("theSStream"), py::arg("theStreamPos")
)
.def("SetCoord",
(void (gp_Dir::*)( const Standard_Integer , const Standard_Real ) ) static_cast<void (gp_Dir::*)( const Standard_Integer , const Standard_Real ) >(&gp_Dir::SetCoord),
R"#(For this unit vector, assigns the value Xi to: - the X coordinate if theIndex is 1, or - the Y coordinate if theIndex is 2, or - the Z coordinate if theIndex is 3, and then normalizes it. Warning Remember that all the coordinates of a unit vector are implicitly modified when any single one is changed directly. Exceptions Standard_OutOfRange if theIndex is not 1, 2, or 3. Standard_ConstructionError if either of the following is less than or equal to gp::Resolution(): - Sqrt(Xv*Xv + Yv*Yv + Zv*Zv), or - the modulus of the number triple formed by the new value theXi and the two other coordinates of this vector that were not directly modified.)#" , py::arg("theIndex"), py::arg("theXi")
)
.def("SetCoord",
(void (gp_Dir::*)( const Standard_Real , const Standard_Real , const Standard_Real ) ) static_cast<void (gp_Dir::*)( const Standard_Real , const Standard_Real , const Standard_Real ) >(&gp_Dir::SetCoord),
R"#(For this unit vector, assigns the values theXv, theYv and theZv to its three coordinates. Remember that all the coordinates of a unit vector are implicitly modified when any single one is changed directly.)#" , py::arg("theXv"), py::arg("theYv"), py::arg("theZv")
)
.def("SetX",
(void (gp_Dir::*)( const Standard_Real ) ) static_cast<void (gp_Dir::*)( const Standard_Real ) >(&gp_Dir::SetX),
R"#(Assigns the given value to the X coordinate of this unit vector.)#" , py::arg("theX")
)
.def("SetY",
(void (gp_Dir::*)( const Standard_Real ) ) static_cast<void (gp_Dir::*)( const Standard_Real ) >(&gp_Dir::SetY),
R"#(Assigns the given value to the Y coordinate of this unit vector.)#" , py::arg("theY")
)
.def("SetZ",
(void (gp_Dir::*)( const Standard_Real ) ) static_cast<void (gp_Dir::*)( const Standard_Real ) >(&gp_Dir::SetZ),
R"#(Assigns the given value to the Z coordinate of this unit vector.)#" , py::arg("theZ")
)
.def("SetXYZ",
(void (gp_Dir::*)( const gp_XYZ & ) ) static_cast<void (gp_Dir::*)( const gp_XYZ & ) >(&gp_Dir::SetXYZ),
R"#(Assigns the three coordinates of theCoord to this unit vector.)#" , py::arg("theXYZ")
)
.def("Cross",
(void (gp_Dir::*)( const gp_Dir & ) ) static_cast<void (gp_Dir::*)( const gp_Dir & ) >(&gp_Dir::Cross),
R"#(Computes the cross product between two directions Raises the exception ConstructionError if the two directions are parallel because the computed vector cannot be normalized to create a direction.)#" , py::arg("theRight")
)
.def("Crossed",
(gp_Dir (gp_Dir::*)( const gp_Dir & ) const) static_cast<gp_Dir (gp_Dir::*)( const gp_Dir & ) const>(&gp_Dir::Crossed),
R"#(Computes the triple vector product. <me> ^ (V1 ^ V2) Raises the exception ConstructionError if V1 and V2 are parallel or <me> and (V1^V2) are parallel because the computed vector can't be normalized to create a direction.)#" , py::arg("theRight")
)
.def("CrossCross",
(void (gp_Dir::*)( const gp_Dir & , const gp_Dir & ) ) static_cast<void (gp_Dir::*)( const gp_Dir & , const gp_Dir & ) >(&gp_Dir::CrossCross),
R"#(None)#" , py::arg("theV1"), py::arg("theV2")
)
.def("CrossCrossed",
(gp_Dir (gp_Dir::*)( const gp_Dir & , const gp_Dir & ) const) static_cast<gp_Dir (gp_Dir::*)( const gp_Dir & , const gp_Dir & ) const>(&gp_Dir::CrossCrossed),
R"#(Computes the double vector product this ^ (theV1 ^ theV2). - CrossCrossed creates a new unit vector. Exceptions Standard_ConstructionError if: - theV1 and theV2 are parallel, or - this unit vector and (theV1 ^ theV2) are parallel. This is because, in these conditions, the computed vector is null and cannot be normalized.)#" , py::arg("theV1"), py::arg("theV2")
)
.def("Rotate",
(void (gp_Dir::*)( const gp_Ax1 & , const Standard_Real ) ) static_cast<void (gp_Dir::*)( const gp_Ax1 & , const Standard_Real ) >(&gp_Dir::Rotate),
R"#(None)#" , py::arg("theA1"), py::arg("theAng")
)
// methods using call by reference i.s.o. return
.def("Coord",
[]( gp_Dir &self ){
Standard_Real theXv;
Standard_Real theYv;
Standard_Real theZv;
self.Coord(theXv,theYv,theZv);
return std::make_tuple(theXv,theYv,theZv); },
R"#(Returns for the unit vector its three coordinates theXv, theYv, and theZv.)#"
)
// static methods
// static methods using call by reference i.s.o. return
// operators
.def("__ipow__",
(void (gp_Dir::*)( const gp_Dir & ) ) static_cast<void (gp_Dir::*)( const gp_Dir & ) >(&gp_Dir::operator^=),
py::is_operator(),
R"#(None)#" , py::arg("theRight")
)
.def("__pow__",
(gp_Dir (gp_Dir::*)( const gp_Dir & ) const) static_cast<gp_Dir (gp_Dir::*)( const gp_Dir & ) const>(&gp_Dir::operator^),
py::is_operator(),
R"#(None)#" , py::arg("theRight")
)
.def("__mul__",
(Standard_Real (gp_Dir::*)( const gp_Dir & ) const) static_cast<Standard_Real (gp_Dir::*)( const gp_Dir & ) const>(&gp_Dir::operator*),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
.def("__rmul__",
(Standard_Real (gp_Dir::*)( const gp_Dir & ) const) static_cast<Standard_Real (gp_Dir::*)( const gp_Dir & ) const>(&gp_Dir::operator*),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
.def("__sub__",
(gp_Dir (gp_Dir::*)() const) static_cast<gp_Dir (gp_Dir::*)() const>(&gp_Dir::operator-),
py::is_operator(),
R"#(None)#"
)
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
.def("XYZ",
(const gp_XYZ & (gp_Dir::*)() const) static_cast<const gp_XYZ & (gp_Dir::*)() const>(&gp_Dir::XYZ),
R"#(for this unit vector, returns its three coordinates as a number triplea.)#"
)
;
// Class gp_Dir2d from ./opencascade/gp_Dir2d.hxx
klass = m.attr("gp_Dir2d");
// nested enums
static_cast<py::class_<gp_Dir2d , shared_ptr<gp_Dir2d> >>(klass)
// constructors
.def(py::init< >() )
.def(py::init< const gp_Vec2d & >() , py::arg("theV") )
.def(py::init< const gp_XY & >() , py::arg("theCoord") )
.def(py::init< const Standard_Real,const Standard_Real >() , py::arg("theXv"), py::arg("theYv") )
// custom constructors
// methods
.def("SetCoord",
(void (gp_Dir2d::*)( const Standard_Integer , const Standard_Real ) ) static_cast<void (gp_Dir2d::*)( const Standard_Integer , const Standard_Real ) >(&gp_Dir2d::SetCoord),
R"#(For this unit vector, assigns: the value theXi to: - the X coordinate if theIndex is 1, or - the Y coordinate if theIndex is 2, and then normalizes it. Warning Remember that all the coordinates of a unit vector are implicitly modified when any single one is changed directly. Exceptions Standard_OutOfRange if theIndex is not 1 or 2. Standard_ConstructionError if either of the following is less than or equal to gp::Resolution(): - Sqrt(theXv*theXv + theYv*theYv), or - the modulus of the number pair formed by the new value theXi and the other coordinate of this vector that was not directly modified. Raises OutOfRange if theIndex != {1, 2}.)#" , py::arg("theIndex"), py::arg("theXi")
)
.def("SetCoord",
(void (gp_Dir2d::*)( const Standard_Real , const Standard_Real ) ) static_cast<void (gp_Dir2d::*)( const Standard_Real , const Standard_Real ) >(&gp_Dir2d::SetCoord),
R"#(For this unit vector, assigns: - the values theXv and theYv to its two coordinates, Warning Remember that all the coordinates of a unit vector are implicitly modified when any single one is changed directly. Exceptions Standard_OutOfRange if theIndex is not 1 or 2. Standard_ConstructionError if either of the following is less than or equal to gp::Resolution(): - Sqrt(theXv*theXv + theYv*theYv), or - the modulus of the number pair formed by the new value Xi and the other coordinate of this vector that was not directly modified. Raises OutOfRange if theIndex != {1, 2}.)#" , py::arg("theXv"), py::arg("theYv")
)
.def("SetX",
(void (gp_Dir2d::*)( const Standard_Real ) ) static_cast<void (gp_Dir2d::*)( const Standard_Real ) >(&gp_Dir2d::SetX),
R"#(Assigns the given value to the X coordinate of this unit vector, and then normalizes it. Warning Remember that all the coordinates of a unit vector are implicitly modified when any single one is changed directly. Exceptions Standard_ConstructionError if either of the following is less than or equal to gp::Resolution(): - the modulus of Coord, or - the modulus of the number pair formed from the new X or Y coordinate and the other coordinate of this vector that was not directly modified.)#" , py::arg("theX")
)
.def("SetY",
(void (gp_Dir2d::*)( const Standard_Real ) ) static_cast<void (gp_Dir2d::*)( const Standard_Real ) >(&gp_Dir2d::SetY),
R"#(Assigns the given value to the Y coordinate of this unit vector, and then normalizes it. Warning Remember that all the coordinates of a unit vector are implicitly modified when any single one is changed directly. Exceptions Standard_ConstructionError if either of the following is less than or equal to gp::Resolution(): - the modulus of Coord, or - the modulus of the number pair formed from the new X or Y coordinate and the other coordinate of this vector that was not directly modified.)#" , py::arg("theY")
)
.def("SetXY",
(void (gp_Dir2d::*)( const gp_XY & ) ) static_cast<void (gp_Dir2d::*)( const gp_XY & ) >(&gp_Dir2d::SetXY),
R"#(Assigns: - the two coordinates of theCoord to this unit vector, and then normalizes it. Warning Remember that all the coordinates of a unit vector are implicitly modified when any single one is changed directly. Exceptions Standard_ConstructionError if either of the following is less than or equal to gp::Resolution(): - the modulus of theCoord, or - the modulus of the number pair formed from the new X or Y coordinate and the other coordinate of this vector that was not directly modified.)#" , py::arg("theCoord")
)
.def("Coord",
(Standard_Real (gp_Dir2d::*)( const Standard_Integer ) const) static_cast<Standard_Real (gp_Dir2d::*)( const Standard_Integer ) const>(&gp_Dir2d::Coord),
R"#(For this unit vector returns the coordinate of range theIndex : theIndex = 1 => X is returned theIndex = 2 => Y is returned Raises OutOfRange if theIndex != {1, 2}.)#" , py::arg("theIndex")
)
.def("X",
(Standard_Real (gp_Dir2d::*)() const) static_cast<Standard_Real (gp_Dir2d::*)() const>(&gp_Dir2d::X),
R"#(For this unit vector, returns its X coordinate.)#"
)
.def("Y",
(Standard_Real (gp_Dir2d::*)() const) static_cast<Standard_Real (gp_Dir2d::*)() const>(&gp_Dir2d::Y),
R"#(For this unit vector, returns its Y coordinate.)#"
)
.def("IsEqual",
(Standard_Boolean (gp_Dir2d::*)( const gp_Dir2d & , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Dir2d::*)( const gp_Dir2d & , const Standard_Real ) const>(&gp_Dir2d::IsEqual),
R"#(Returns True if the two vectors have the same direction i.e. the angle between this unit vector and the unit vector theOther is less than or equal to theAngularTolerance.)#" , py::arg("theOther"), py::arg("theAngularTolerance")
)
.def("IsNormal",
(Standard_Boolean (gp_Dir2d::*)( const gp_Dir2d & , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Dir2d::*)( const gp_Dir2d & , const Standard_Real ) const>(&gp_Dir2d::IsNormal),
R"#(Returns True if the angle between this unit vector and the unit vector theOther is equal to Pi/2 or -Pi/2 (normal) i.e. Abs(Abs(<me>.Angle(theOther)) - PI/2.) <= theAngularTolerance)#" , py::arg("theOther"), py::arg("theAngularTolerance")
)
.def("IsOpposite",
(Standard_Boolean (gp_Dir2d::*)( const gp_Dir2d & , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Dir2d::*)( const gp_Dir2d & , const Standard_Real ) const>(&gp_Dir2d::IsOpposite),
R"#(Returns True if the angle between this unit vector and the unit vector theOther is equal to Pi or -Pi (opposite). i.e. PI - Abs(<me>.Angle(theOther)) <= theAngularTolerance)#" , py::arg("theOther"), py::arg("theAngularTolerance")
)
.def("IsParallel",
(Standard_Boolean (gp_Dir2d::*)( const gp_Dir2d & , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Dir2d::*)( const gp_Dir2d & , const Standard_Real ) const>(&gp_Dir2d::IsParallel),
R"#(returns true if the angle between this unit vector and unit vector theOther is equal to 0, Pi or -Pi. i.e. Abs(Angle(<me>, theOther)) <= theAngularTolerance or PI - Abs(Angle(<me>, theOther)) <= theAngularTolerance)#" , py::arg("theOther"), py::arg("theAngularTolerance")
)
.def("Angle",
(Standard_Real (gp_Dir2d::*)( const gp_Dir2d & ) const) static_cast<Standard_Real (gp_Dir2d::*)( const gp_Dir2d & ) const>(&gp_Dir2d::Angle),
R"#(Computes the angular value in radians between <me> and <theOther>. Returns the angle in the range [-PI, PI].)#" , py::arg("theOther")
)
.def("Crossed",
(Standard_Real (gp_Dir2d::*)( const gp_Dir2d & ) const) static_cast<Standard_Real (gp_Dir2d::*)( const gp_Dir2d & ) const>(&gp_Dir2d::Crossed),
R"#(Computes the cross product between two directions.)#" , py::arg("theRight")
)
.def("Dot",
(Standard_Real (gp_Dir2d::*)( const gp_Dir2d & ) const) static_cast<Standard_Real (gp_Dir2d::*)( const gp_Dir2d & ) const>(&gp_Dir2d::Dot),
R"#(Computes the scalar product)#" , py::arg("theOther")
)
.def("Reverse",
(void (gp_Dir2d::*)() ) static_cast<void (gp_Dir2d::*)() >(&gp_Dir2d::Reverse),
R"#(None)#"
)
.def("Reversed",
(gp_Dir2d (gp_Dir2d::*)() const) static_cast<gp_Dir2d (gp_Dir2d::*)() const>(&gp_Dir2d::Reversed),
R"#(Reverses the orientation of a direction)#"
)
.def("Mirror",
(void (gp_Dir2d::*)( const gp_Dir2d & ) ) static_cast<void (gp_Dir2d::*)( const gp_Dir2d & ) >(&gp_Dir2d::Mirror),
R"#(None)#" , py::arg("theV")
)
.def("Mirrored",
(gp_Dir2d (gp_Dir2d::*)( const gp_Dir2d & ) const) static_cast<gp_Dir2d (gp_Dir2d::*)( const gp_Dir2d & ) const>(&gp_Dir2d::Mirrored),
R"#(Performs the symmetrical transformation of a direction with respect to the direction theV which is the center of the symmetry.)#" , py::arg("theV")
)
.def("Mirror",
(void (gp_Dir2d::*)( const gp_Ax2d & ) ) static_cast<void (gp_Dir2d::*)( const gp_Ax2d & ) >(&gp_Dir2d::Mirror),
R"#(None)#" , py::arg("theA")
)
.def("Mirrored",
(gp_Dir2d (gp_Dir2d::*)( const gp_Ax2d & ) const) static_cast<gp_Dir2d (gp_Dir2d::*)( const gp_Ax2d & ) const>(&gp_Dir2d::Mirrored),
R"#(Performs the symmetrical transformation of a direction with respect to an axis placement which is the axis of the symmetry.)#" , py::arg("theA")
)
.def("Rotate",
(void (gp_Dir2d::*)( const Standard_Real ) ) static_cast<void (gp_Dir2d::*)( const Standard_Real ) >(&gp_Dir2d::Rotate),
R"#(None)#" , py::arg("Ang")
)
.def("Rotated",
(gp_Dir2d (gp_Dir2d::*)( const Standard_Real ) const) static_cast<gp_Dir2d (gp_Dir2d::*)( const Standard_Real ) const>(&gp_Dir2d::Rotated),
R"#(Rotates a direction. theAng is the angular value of the rotation in radians.)#" , py::arg("theAng")
)
.def("Transform",
(void (gp_Dir2d::*)( const gp_Trsf2d & ) ) static_cast<void (gp_Dir2d::*)( const gp_Trsf2d & ) >(&gp_Dir2d::Transform),
R"#(None)#" , py::arg("theT")
)
.def("Transformed",
(gp_Dir2d (gp_Dir2d::*)( const gp_Trsf2d & ) const) static_cast<gp_Dir2d (gp_Dir2d::*)( const gp_Trsf2d & ) const>(&gp_Dir2d::Transformed),
R"#(Transforms a direction with the "Trsf" theT. Warnings : If the scale factor of the "Trsf" theT is negative then the direction <me> is reversed.)#" , py::arg("theT")
)
.def("DumpJson",
(void (gp_Dir2d::*)( std::ostream & , Standard_Integer ) const) static_cast<void (gp_Dir2d::*)( std::ostream & , Standard_Integer ) const>(&gp_Dir2d::DumpJson),
R"#(Dumps the content of me into the stream)#" , py::arg("theOStream"), py::arg("theDepth")=static_cast<Standard_Integer>(- 1)
)
.def("SetCoord",
(void (gp_Dir2d::*)( const Standard_Integer , const Standard_Real ) ) static_cast<void (gp_Dir2d::*)( const Standard_Integer , const Standard_Real ) >(&gp_Dir2d::SetCoord),
R"#(For this unit vector, assigns: the value theXi to: - the X coordinate if theIndex is 1, or - the Y coordinate if theIndex is 2, and then normalizes it. Warning Remember that all the coordinates of a unit vector are implicitly modified when any single one is changed directly. Exceptions Standard_OutOfRange if theIndex is not 1 or 2. Standard_ConstructionError if either of the following is less than or equal to gp::Resolution(): - Sqrt(theXv*theXv + theYv*theYv), or - the modulus of the number pair formed by the new value theXi and the other coordinate of this vector that was not directly modified. Raises OutOfRange if theIndex != {1, 2}.)#" , py::arg("theIndex"), py::arg("theXi")
)
.def("SetCoord",
(void (gp_Dir2d::*)( const Standard_Real , const Standard_Real ) ) static_cast<void (gp_Dir2d::*)( const Standard_Real , const Standard_Real ) >(&gp_Dir2d::SetCoord),
R"#(For this unit vector, assigns: - the values theXv and theYv to its two coordinates, Warning Remember that all the coordinates of a unit vector are implicitly modified when any single one is changed directly. Exceptions Standard_OutOfRange if theIndex is not 1 or 2. Standard_ConstructionError if either of the following is less than or equal to gp::Resolution(): - Sqrt(theXv*theXv + theYv*theYv), or - the modulus of the number pair formed by the new value Xi and the other coordinate of this vector that was not directly modified. Raises OutOfRange if theIndex != {1, 2}.)#" , py::arg("theXv"), py::arg("theYv")
)
.def("SetX",
(void (gp_Dir2d::*)( const Standard_Real ) ) static_cast<void (gp_Dir2d::*)( const Standard_Real ) >(&gp_Dir2d::SetX),
R"#(Assigns the given value to the X coordinate of this unit vector, and then normalizes it. Warning Remember that all the coordinates of a unit vector are implicitly modified when any single one is changed directly. Exceptions Standard_ConstructionError if either of the following is less than or equal to gp::Resolution(): - the modulus of Coord, or - the modulus of the number pair formed from the new X or Y coordinate and the other coordinate of this vector that was not directly modified.)#" , py::arg("theX")
)
.def("SetY",
(void (gp_Dir2d::*)( const Standard_Real ) ) static_cast<void (gp_Dir2d::*)( const Standard_Real ) >(&gp_Dir2d::SetY),
R"#(Assigns the given value to the Y coordinate of this unit vector, and then normalizes it. Warning Remember that all the coordinates of a unit vector are implicitly modified when any single one is changed directly. Exceptions Standard_ConstructionError if either of the following is less than or equal to gp::Resolution(): - the modulus of Coord, or - the modulus of the number pair formed from the new X or Y coordinate and the other coordinate of this vector that was not directly modified.)#" , py::arg("theY")
)
.def("SetXY",
(void (gp_Dir2d::*)( const gp_XY & ) ) static_cast<void (gp_Dir2d::*)( const gp_XY & ) >(&gp_Dir2d::SetXY),
R"#(Assigns: - the two coordinates of theCoord to this unit vector, and then normalizes it. Warning Remember that all the coordinates of a unit vector are implicitly modified when any single one is changed directly. Exceptions Standard_ConstructionError if either of the following is less than or equal to gp::Resolution(): - the modulus of theCoord, or - the modulus of the number pair formed from the new X or Y coordinate and the other coordinate of this vector that was not directly modified.)#" , py::arg("theXY")
)
.def("IsEqual",
(Standard_Boolean (gp_Dir2d::*)( const gp_Dir2d & , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Dir2d::*)( const gp_Dir2d & , const Standard_Real ) const>(&gp_Dir2d::IsEqual),
R"#(Returns True if the two vectors have the same direction i.e. the angle between this unit vector and the unit vector theOther is less than or equal to theAngularTolerance.)#" , py::arg("theOther"), py::arg("theAngularTolerance")
)
.def("IsNormal",
(Standard_Boolean (gp_Dir2d::*)( const gp_Dir2d & , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Dir2d::*)( const gp_Dir2d & , const Standard_Real ) const>(&gp_Dir2d::IsNormal),
R"#(Returns True if the angle between this unit vector and the unit vector theOther is equal to Pi/2 or -Pi/2 (normal) i.e. Abs(Abs(<me>.Angle(theOther)) - PI/2.) <= theAngularTolerance)#" , py::arg("theOther"), py::arg("theAngularTolerance")
)
.def("IsOpposite",
(Standard_Boolean (gp_Dir2d::*)( const gp_Dir2d & , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Dir2d::*)( const gp_Dir2d & , const Standard_Real ) const>(&gp_Dir2d::IsOpposite),
R"#(Returns True if the angle between this unit vector and the unit vector theOther is equal to Pi or -Pi (opposite). i.e. PI - Abs(<me>.Angle(theOther)) <= theAngularTolerance)#" , py::arg("theOther"), py::arg("theAngularTolerance")
)
.def("IsParallel",
(Standard_Boolean (gp_Dir2d::*)( const gp_Dir2d & , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Dir2d::*)( const gp_Dir2d & , const Standard_Real ) const>(&gp_Dir2d::IsParallel),
R"#(returns true if the angle between this unit vector and unit vector theOther is equal to 0, Pi or -Pi. i.e. Abs(Angle(<me>, theOther)) <= theAngularTolerance or PI - Abs(Angle(<me>, theOther)) <= theAngularTolerance)#" , py::arg("theOther"), py::arg("theAngularTolerance")
)
.def("Rotate",
(void (gp_Dir2d::*)( const Standard_Real ) ) static_cast<void (gp_Dir2d::*)( const Standard_Real ) >(&gp_Dir2d::Rotate),
R"#(None)#" , py::arg("theAng")
)
// methods using call by reference i.s.o. return
.def("Coord",
[]( gp_Dir2d &self ){
Standard_Real theXv;
Standard_Real theYv;
self.Coord(theXv,theYv);
return std::make_tuple(theXv,theYv); },
R"#(For this unit vector returns its two coordinates theXv and theYv. Raises OutOfRange if theIndex != {1, 2}.)#"
)
// static methods
// static methods using call by reference i.s.o. return
// operators
.def("__pow__",
(Standard_Real (gp_Dir2d::*)( const gp_Dir2d & ) const) static_cast<Standard_Real (gp_Dir2d::*)( const gp_Dir2d & ) const>(&gp_Dir2d::operator^),
py::is_operator(),
R"#(None)#" , py::arg("theRight")
)
.def("__mul__",
(Standard_Real (gp_Dir2d::*)( const gp_Dir2d & ) const) static_cast<Standard_Real (gp_Dir2d::*)( const gp_Dir2d & ) const>(&gp_Dir2d::operator*),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
.def("__rmul__",
(Standard_Real (gp_Dir2d::*)( const gp_Dir2d & ) const) static_cast<Standard_Real (gp_Dir2d::*)( const gp_Dir2d & ) const>(&gp_Dir2d::operator*),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
.def("__sub__",
(gp_Dir2d (gp_Dir2d::*)() const) static_cast<gp_Dir2d (gp_Dir2d::*)() const>(&gp_Dir2d::operator-),
py::is_operator(),
R"#(None)#"
)
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
.def("XY",
(const gp_XY & (gp_Dir2d::*)() const) static_cast<const gp_XY & (gp_Dir2d::*)() const>(&gp_Dir2d::XY),
R"#(For this unit vector, returns its two coordinates as a number pair. Comparison between Directions The precision value is an input data.)#"
)
;
// Class gp_Elips from ./opencascade/gp_Elips.hxx
klass = m.attr("gp_Elips");
// nested enums
static_cast<py::class_<gp_Elips , shared_ptr<gp_Elips> >>(klass)
// constructors
.def(py::init< >() )
.def(py::init< const gp_Ax2 &,const Standard_Real,const Standard_Real >() , py::arg("theA2"), py::arg("theMajorRadius"), py::arg("theMinorRadius") )
// custom constructors
// methods
.def("SetAxis",
(void (gp_Elips::*)( const gp_Ax1 & ) ) static_cast<void (gp_Elips::*)( const gp_Ax1 & ) >(&gp_Elips::SetAxis),
R"#(Changes the axis normal to the plane of the ellipse. It modifies the definition of this plane. The "XAxis" and the "YAxis" are recomputed. The local coordinate system is redefined so that: - its origin and "main Direction" become those of the axis theA1 (the "X Direction" and "Y Direction" are then recomputed in the same way as for any gp_Ax2), or Raises ConstructionError if the direction of theA1 is parallel to the direction of the "XAxis" of the ellipse.)#" , py::arg("theA1")
)
.def("SetLocation",
(void (gp_Elips::*)( const gp_Pnt & ) ) static_cast<void (gp_Elips::*)( const gp_Pnt & ) >(&gp_Elips::SetLocation),
R"#(Modifies this ellipse, by redefining its local coordinate so that its origin becomes theP.)#" , py::arg("theP")
)
.def("SetMajorRadius",
(void (gp_Elips::*)( const Standard_Real ) ) static_cast<void (gp_Elips::*)( const Standard_Real ) >(&gp_Elips::SetMajorRadius),
R"#(The major radius of the ellipse is on the "XAxis" (major axis) of the ellipse. Raises ConstructionError if theMajorRadius < MinorRadius.)#" , py::arg("theMajorRadius")
)
.def("SetMinorRadius",
(void (gp_Elips::*)( const Standard_Real ) ) static_cast<void (gp_Elips::*)( const Standard_Real ) >(&gp_Elips::SetMinorRadius),
R"#(The minor radius of the ellipse is on the "YAxis" (minor axis) of the ellipse. Raises ConstructionError if theMinorRadius > MajorRadius or MinorRadius < 0.)#" , py::arg("theMinorRadius")
)
.def("SetPosition",
(void (gp_Elips::*)( const gp_Ax2 & ) ) static_cast<void (gp_Elips::*)( const gp_Ax2 & ) >(&gp_Elips::SetPosition),
R"#(Modifies this ellipse, by redefining its local coordinate so that it becomes theA2.)#" , py::arg("theA2")
)
.def("Area",
(Standard_Real (gp_Elips::*)() const) static_cast<Standard_Real (gp_Elips::*)() const>(&gp_Elips::Area),
R"#(Computes the area of the Ellipse.)#"
)
.def("Directrix1",
(gp_Ax1 (gp_Elips::*)() const) static_cast<gp_Ax1 (gp_Elips::*)() const>(&gp_Elips::Directrix1),
R"#(Computes the first or second directrix of this ellipse. These are the lines, in the plane of the ellipse, normal to the major axis, at a distance equal to MajorRadius/e from the center of the ellipse, where e is the eccentricity of the ellipse. The first directrix (Directrix1) is on the positive side of the major axis. The second directrix (Directrix2) is on the negative side. The directrix is returned as an axis (gp_Ax1 object), the origin of which is situated on the "X Axis" of the local coordinate system of this ellipse. Exceptions Standard_ConstructionError if the eccentricity is null (the ellipse has degenerated into a circle).)#"
)
.def("Directrix2",
(gp_Ax1 (gp_Elips::*)() const) static_cast<gp_Ax1 (gp_Elips::*)() const>(&gp_Elips::Directrix2),
R"#(This line is obtained by the symmetrical transformation of "Directrix1" with respect to the "YAxis" of the ellipse. Exceptions Standard_ConstructionError if the eccentricity is null (the ellipse has degenerated into a circle).)#"
)
.def("Eccentricity",
(Standard_Real (gp_Elips::*)() const) static_cast<Standard_Real (gp_Elips::*)() const>(&gp_Elips::Eccentricity),
R"#(Returns the eccentricity of the ellipse between 0.0 and 1.0 If f is the distance between the center of the ellipse and the Focus1 then the eccentricity e = f / MajorRadius. Raises ConstructionError if MajorRadius = 0.0)#"
)
.def("Focal",
(Standard_Real (gp_Elips::*)() const) static_cast<Standard_Real (gp_Elips::*)() const>(&gp_Elips::Focal),
R"#(Computes the focal distance. It is the distance between the two focus focus1 and focus2 of the ellipse.)#"
)
.def("Focus1",
(gp_Pnt (gp_Elips::*)() const) static_cast<gp_Pnt (gp_Elips::*)() const>(&gp_Elips::Focus1),
R"#(Returns the first focus of the ellipse. This focus is on the positive side of the "XAxis" of the ellipse.)#"
)
.def("Focus2",
(gp_Pnt (gp_Elips::*)() const) static_cast<gp_Pnt (gp_Elips::*)() const>(&gp_Elips::Focus2),
R"#(Returns the second focus of the ellipse. This focus is on the negative side of the "XAxis" of the ellipse.)#"
)
.def("MajorRadius",
(Standard_Real (gp_Elips::*)() const) static_cast<Standard_Real (gp_Elips::*)() const>(&gp_Elips::MajorRadius),
R"#(Returns the major radius of the ellipse.)#"
)
.def("MinorRadius",
(Standard_Real (gp_Elips::*)() const) static_cast<Standard_Real (gp_Elips::*)() const>(&gp_Elips::MinorRadius),
R"#(Returns the minor radius of the ellipse.)#"
)
.def("Parameter",
(Standard_Real (gp_Elips::*)() const) static_cast<Standard_Real (gp_Elips::*)() const>(&gp_Elips::Parameter),
R"#(Returns p = (1 - e * e) * MajorRadius where e is the eccentricity of the ellipse. Returns 0 if MajorRadius = 0)#"
)
.def("XAxis",
(gp_Ax1 (gp_Elips::*)() const) static_cast<gp_Ax1 (gp_Elips::*)() const>(&gp_Elips::XAxis),
R"#(Returns the "XAxis" of the ellipse whose origin is the center of this ellipse. It is the major axis of the ellipse.)#"
)
.def("YAxis",
(gp_Ax1 (gp_Elips::*)() const) static_cast<gp_Ax1 (gp_Elips::*)() const>(&gp_Elips::YAxis),
R"#(Returns the "YAxis" of the ellipse whose unit vector is the "X Direction" or the "Y Direction" of the local coordinate system of this ellipse. This is the minor axis of the ellipse.)#"
)
.def("Mirror",
(void (gp_Elips::*)( const gp_Pnt & ) ) static_cast<void (gp_Elips::*)( const gp_Pnt & ) >(&gp_Elips::Mirror),
R"#(None)#" , py::arg("theP")
)
.def("Mirrored",
(gp_Elips (gp_Elips::*)( const gp_Pnt & ) const) static_cast<gp_Elips (gp_Elips::*)( const gp_Pnt & ) const>(&gp_Elips::Mirrored),
R"#(Performs the symmetrical transformation of an ellipse with respect to the point theP which is the center of the symmetry.)#" , py::arg("theP")
)
.def("Mirror",
(void (gp_Elips::*)( const gp_Ax1 & ) ) static_cast<void (gp_Elips::*)( const gp_Ax1 & ) >(&gp_Elips::Mirror),
R"#(None)#" , py::arg("theA1")
)
.def("Mirrored",
(gp_Elips (gp_Elips::*)( const gp_Ax1 & ) const) static_cast<gp_Elips (gp_Elips::*)( const gp_Ax1 & ) const>(&gp_Elips::Mirrored),
R"#(Performs the symmetrical transformation of an ellipse with respect to an axis placement which is the axis of the symmetry.)#" , py::arg("theA1")
)
.def("Mirror",
(void (gp_Elips::*)( const gp_Ax2 & ) ) static_cast<void (gp_Elips::*)( const gp_Ax2 & ) >(&gp_Elips::Mirror),
R"#(None)#" , py::arg("theA2")
)
.def("Mirrored",
(gp_Elips (gp_Elips::*)( const gp_Ax2 & ) const) static_cast<gp_Elips (gp_Elips::*)( const gp_Ax2 & ) const>(&gp_Elips::Mirrored),
R"#(Performs the symmetrical transformation of an ellipse with respect to a plane. The axis placement theA2 locates the plane of the symmetry (Location, XDirection, YDirection).)#" , py::arg("theA2")
)
.def("Rotate",
(void (gp_Elips::*)( const gp_Ax1 & , const Standard_Real ) ) static_cast<void (gp_Elips::*)( const gp_Ax1 & , const Standard_Real ) >(&gp_Elips::Rotate),
R"#(None)#" , py::arg("theA1"), py::arg("theAng")
)
.def("Rotated",
(gp_Elips (gp_Elips::*)( const gp_Ax1 & , const Standard_Real ) const) static_cast<gp_Elips (gp_Elips::*)( const gp_Ax1 & , const Standard_Real ) const>(&gp_Elips::Rotated),
R"#(Rotates an ellipse. theA1 is the axis of the rotation. theAng is the angular value of the rotation in radians.)#" , py::arg("theA1"), py::arg("theAng")
)
.def("Scale",
(void (gp_Elips::*)( const gp_Pnt & , const Standard_Real ) ) static_cast<void (gp_Elips::*)( const gp_Pnt & , const Standard_Real ) >(&gp_Elips::Scale),
R"#(None)#" , py::arg("theP"), py::arg("theS")
)
.def("Scaled",
(gp_Elips (gp_Elips::*)( const gp_Pnt & , const Standard_Real ) const) static_cast<gp_Elips (gp_Elips::*)( const gp_Pnt & , const Standard_Real ) const>(&gp_Elips::Scaled),
R"#(Scales an ellipse. theS is the scaling value.)#" , py::arg("theP"), py::arg("theS")
)
.def("Transform",
(void (gp_Elips::*)( const gp_Trsf & ) ) static_cast<void (gp_Elips::*)( const gp_Trsf & ) >(&gp_Elips::Transform),
R"#(None)#" , py::arg("theT")
)
.def("Transformed",
(gp_Elips (gp_Elips::*)( const gp_Trsf & ) const) static_cast<gp_Elips (gp_Elips::*)( const gp_Trsf & ) const>(&gp_Elips::Transformed),
R"#(Transforms an ellipse with the transformation theT from class Trsf.)#" , py::arg("theT")
)
.def("Translate",
(void (gp_Elips::*)( const gp_Vec & ) ) static_cast<void (gp_Elips::*)( const gp_Vec & ) >(&gp_Elips::Translate),
R"#(None)#" , py::arg("theV")
)
.def("Translated",
(gp_Elips (gp_Elips::*)( const gp_Vec & ) const) static_cast<gp_Elips (gp_Elips::*)( const gp_Vec & ) const>(&gp_Elips::Translated),
R"#(Translates an ellipse in the direction of the vector theV. The magnitude of the translation is the vector's magnitude.)#" , py::arg("theV")
)
.def("Translate",
(void (gp_Elips::*)( const gp_Pnt & , const gp_Pnt & ) ) static_cast<void (gp_Elips::*)( const gp_Pnt & , const gp_Pnt & ) >(&gp_Elips::Translate),
R"#(None)#" , py::arg("theP1"), py::arg("theP2")
)
.def("Translated",
(gp_Elips (gp_Elips::*)( const gp_Pnt & , const gp_Pnt & ) const) static_cast<gp_Elips (gp_Elips::*)( const gp_Pnt & , const gp_Pnt & ) const>(&gp_Elips::Translated),
R"#(Translates an ellipse from the point theP1 to the point theP2.)#" , py::arg("theP1"), py::arg("theP2")
)
.def("Directrix1",
(gp_Ax1 (gp_Elips::*)() const) static_cast<gp_Ax1 (gp_Elips::*)() const>(&gp_Elips::Directrix1),
R"#(Computes the first or second directrix of this ellipse. These are the lines, in the plane of the ellipse, normal to the major axis, at a distance equal to MajorRadius/e from the center of the ellipse, where e is the eccentricity of the ellipse. The first directrix (Directrix1) is on the positive side of the major axis. The second directrix (Directrix2) is on the negative side. The directrix is returned as an axis (gp_Ax1 object), the origin of which is situated on the "X Axis" of the local coordinate system of this ellipse. Exceptions Standard_ConstructionError if the eccentricity is null (the ellipse has degenerated into a circle).)#"
)
.def("Directrix2",
(gp_Ax1 (gp_Elips::*)() const) static_cast<gp_Ax1 (gp_Elips::*)() const>(&gp_Elips::Directrix2),
R"#(This line is obtained by the symmetrical transformation of "Directrix1" with respect to the "YAxis" of the ellipse. Exceptions Standard_ConstructionError if the eccentricity is null (the ellipse has degenerated into a circle).)#"
)
.def("Eccentricity",
(Standard_Real (gp_Elips::*)() const) static_cast<Standard_Real (gp_Elips::*)() const>(&gp_Elips::Eccentricity),
R"#(Returns the eccentricity of the ellipse between 0.0 and 1.0 If f is the distance between the center of the ellipse and the Focus1 then the eccentricity e = f / MajorRadius. Raises ConstructionError if MajorRadius = 0.0)#"
)
.def("Focus1",
(gp_Pnt (gp_Elips::*)() const) static_cast<gp_Pnt (gp_Elips::*)() const>(&gp_Elips::Focus1),
R"#(Returns the first focus of the ellipse. This focus is on the positive side of the "XAxis" of the ellipse.)#"
)
.def("Focus2",
(gp_Pnt (gp_Elips::*)() const) static_cast<gp_Pnt (gp_Elips::*)() const>(&gp_Elips::Focus2),
R"#(Returns the second focus of the ellipse. This focus is on the negative side of the "XAxis" of the ellipse.)#"
)
.def("Parameter",
(Standard_Real (gp_Elips::*)() const) static_cast<Standard_Real (gp_Elips::*)() const>(&gp_Elips::Parameter),
R"#(Returns p = (1 - e * e) * MajorRadius where e is the eccentricity of the ellipse. Returns 0 if MajorRadius = 0)#"
)
.def("Scale",
(void (gp_Elips::*)( const gp_Pnt & , const Standard_Real ) ) static_cast<void (gp_Elips::*)( const gp_Pnt & , const Standard_Real ) >(&gp_Elips::Scale),
R"#(None)#" , py::arg("theP"), py::arg("theS")
)
.def("Scaled",
(gp_Elips (gp_Elips::*)( const gp_Pnt & , const Standard_Real ) const) static_cast<gp_Elips (gp_Elips::*)( const gp_Pnt & , const Standard_Real ) const>(&gp_Elips::Scaled),
R"#(Scales an ellipse. theS is the scaling value.)#" , py::arg("theP"), py::arg("theS")
)
.def("Transform",
(void (gp_Elips::*)( const gp_Trsf & ) ) static_cast<void (gp_Elips::*)( const gp_Trsf & ) >(&gp_Elips::Transform),
R"#(None)#" , py::arg("theT")
)
.def("Transformed",
(gp_Elips (gp_Elips::*)( const gp_Trsf & ) const) static_cast<gp_Elips (gp_Elips::*)( const gp_Trsf & ) const>(&gp_Elips::Transformed),
R"#(Transforms an ellipse with the transformation theT from class Trsf.)#" , py::arg("theT")
)
// methods using call by reference i.s.o. return
// static methods
// static methods using call by reference i.s.o. return
// operators
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
.def("Axis",
(const gp_Ax1 & (gp_Elips::*)() const) static_cast<const gp_Ax1 & (gp_Elips::*)() const>(&gp_Elips::Axis),
R"#(Computes the axis normal to the plane of the ellipse.)#"
)
.def("Location",
(const gp_Pnt & (gp_Elips::*)() const) static_cast<const gp_Pnt & (gp_Elips::*)() const>(&gp_Elips::Location),
R"#(Returns the center of the ellipse. It is the "Location" point of the coordinate system of the ellipse.)#"
)
.def("Position",
(const gp_Ax2 & (gp_Elips::*)() const) static_cast<const gp_Ax2 & (gp_Elips::*)() const>(&gp_Elips::Position),
R"#(Returns the coordinate system of the ellipse.)#"
)
;
// Class gp_Elips2d from ./opencascade/gp_Elips2d.hxx
klass = m.attr("gp_Elips2d");
// nested enums
static_cast<py::class_<gp_Elips2d , shared_ptr<gp_Elips2d> >>(klass)
// constructors
.def(py::init< >() )
.def(py::init< const gp_Ax2d &,const Standard_Real,const Standard_Real,const Standard_Boolean >() , py::arg("theMajorAxis"), py::arg("theMajorRadius"), py::arg("theMinorRadius"), py::arg("theIsSense")=static_cast<const Standard_Boolean>(Standard_True) )
.def(py::init< const gp_Ax22d &,const Standard_Real,const Standard_Real >() , py::arg("theA"), py::arg("theMajorRadius"), py::arg("theMinorRadius") )
// custom constructors
// methods
.def("SetLocation",
(void (gp_Elips2d::*)( const gp_Pnt2d & ) ) static_cast<void (gp_Elips2d::*)( const gp_Pnt2d & ) >(&gp_Elips2d::SetLocation),
R"#(Modifies this ellipse, by redefining its local coordinate system so that - its origin becomes theP.)#" , py::arg("theP")
)
.def("SetMajorRadius",
(void (gp_Elips2d::*)( const Standard_Real ) ) static_cast<void (gp_Elips2d::*)( const Standard_Real ) >(&gp_Elips2d::SetMajorRadius),
R"#(Changes the value of the major radius. Raises ConstructionError if theMajorRadius < MinorRadius.)#" , py::arg("theMajorRadius")
)
.def("SetMinorRadius",
(void (gp_Elips2d::*)( const Standard_Real ) ) static_cast<void (gp_Elips2d::*)( const Standard_Real ) >(&gp_Elips2d::SetMinorRadius),
R"#(Changes the value of the minor radius. Raises ConstructionError if MajorRadius < theMinorRadius or MinorRadius < 0.0)#" , py::arg("theMinorRadius")
)
.def("SetAxis",
(void (gp_Elips2d::*)( const gp_Ax22d & ) ) static_cast<void (gp_Elips2d::*)( const gp_Ax22d & ) >(&gp_Elips2d::SetAxis),
R"#(Modifies this ellipse, by redefining its local coordinate system so that it becomes theA.)#" , py::arg("theA")
)
.def("SetXAxis",
(void (gp_Elips2d::*)( const gp_Ax2d & ) ) static_cast<void (gp_Elips2d::*)( const gp_Ax2d & ) >(&gp_Elips2d::SetXAxis),
R"#(Modifies this ellipse, by redefining its local coordinate system so that its origin and its "X Direction" become those of the axis theA. The "Y Direction" is then recomputed. The orientation of the local coordinate system is not modified.)#" , py::arg("theA")
)
.def("SetYAxis",
(void (gp_Elips2d::*)( const gp_Ax2d & ) ) static_cast<void (gp_Elips2d::*)( const gp_Ax2d & ) >(&gp_Elips2d::SetYAxis),
R"#(Modifies this ellipse, by redefining its local coordinate system so that its origin and its "Y Direction" become those of the axis theA. The "X Direction" is then recomputed. The orientation of the local coordinate system is not modified.)#" , py::arg("theA")
)
.def("Area",
(Standard_Real (gp_Elips2d::*)() const) static_cast<Standard_Real (gp_Elips2d::*)() const>(&gp_Elips2d::Area),
R"#(Computes the area of the ellipse.)#"
)
.def("Directrix1",
(gp_Ax2d (gp_Elips2d::*)() const) static_cast<gp_Ax2d (gp_Elips2d::*)() const>(&gp_Elips2d::Directrix1),
R"#(This directrix is the line normal to the XAxis of the ellipse in the local plane (Z = 0) at a distance d = MajorRadius / e from the center of the ellipse, where e is the eccentricity of the ellipse. This line is parallel to the "YAxis". The intersection point between directrix1 and the "XAxis" is the location point of the directrix1. This point is on the positive side of the "XAxis".)#"
)
.def("Directrix2",
(gp_Ax2d (gp_Elips2d::*)() const) static_cast<gp_Ax2d (gp_Elips2d::*)() const>(&gp_Elips2d::Directrix2),
R"#(This line is obtained by the symmetrical transformation of "Directrix1" with respect to the minor axis of the ellipse.)#"
)
.def("Eccentricity",
(Standard_Real (gp_Elips2d::*)() const) static_cast<Standard_Real (gp_Elips2d::*)() const>(&gp_Elips2d::Eccentricity),
R"#(Returns the eccentricity of the ellipse between 0.0 and 1.0 If f is the distance between the center of the ellipse and the Focus1 then the eccentricity e = f / MajorRadius. Returns 0 if MajorRadius = 0.)#"
)
.def("Focal",
(Standard_Real (gp_Elips2d::*)() const) static_cast<Standard_Real (gp_Elips2d::*)() const>(&gp_Elips2d::Focal),
R"#(Returns the distance between the center of the ellipse and focus1 or focus2.)#"
)
.def("Focus1",
(gp_Pnt2d (gp_Elips2d::*)() const) static_cast<gp_Pnt2d (gp_Elips2d::*)() const>(&gp_Elips2d::Focus1),
R"#(Returns the first focus of the ellipse. This focus is on the positive side of the major axis of the ellipse.)#"
)
.def("Focus2",
(gp_Pnt2d (gp_Elips2d::*)() const) static_cast<gp_Pnt2d (gp_Elips2d::*)() const>(&gp_Elips2d::Focus2),
R"#(Returns the second focus of the ellipse. This focus is on the negative side of the major axis of the ellipse.)#"
)
.def("MajorRadius",
(Standard_Real (gp_Elips2d::*)() const) static_cast<Standard_Real (gp_Elips2d::*)() const>(&gp_Elips2d::MajorRadius),
R"#(Returns the major radius of the Ellipse.)#"
)
.def("MinorRadius",
(Standard_Real (gp_Elips2d::*)() const) static_cast<Standard_Real (gp_Elips2d::*)() const>(&gp_Elips2d::MinorRadius),
R"#(Returns the minor radius of the Ellipse.)#"
)
.def("Parameter",
(Standard_Real (gp_Elips2d::*)() const) static_cast<Standard_Real (gp_Elips2d::*)() const>(&gp_Elips2d::Parameter),
R"#(Returns p = (1 - e * e) * MajorRadius where e is the eccentricity of the ellipse. Returns 0 if MajorRadius = 0)#"
)
.def("XAxis",
(gp_Ax2d (gp_Elips2d::*)() const) static_cast<gp_Ax2d (gp_Elips2d::*)() const>(&gp_Elips2d::XAxis),
R"#(Returns the major axis of the ellipse.)#"
)
.def("YAxis",
(gp_Ax2d (gp_Elips2d::*)() const) static_cast<gp_Ax2d (gp_Elips2d::*)() const>(&gp_Elips2d::YAxis),
R"#(Returns the minor axis of the ellipse. Reverses the direction of the circle.)#"
)
.def("Reverse",
(void (gp_Elips2d::*)() ) static_cast<void (gp_Elips2d::*)() >(&gp_Elips2d::Reverse),
R"#(None)#"
)
.def("Reversed",
(gp_Elips2d (gp_Elips2d::*)() const) static_cast<gp_Elips2d (gp_Elips2d::*)() const>(&gp_Elips2d::Reversed),
R"#(None)#"
)
.def("IsDirect",
(Standard_Boolean (gp_Elips2d::*)() const) static_cast<Standard_Boolean (gp_Elips2d::*)() const>(&gp_Elips2d::IsDirect),
R"#(Returns true if the local coordinate system is direct and false in the other case.)#"
)
.def("Mirror",
(void (gp_Elips2d::*)( const gp_Pnt2d & ) ) static_cast<void (gp_Elips2d::*)( const gp_Pnt2d & ) >(&gp_Elips2d::Mirror),
R"#(None)#" , py::arg("theP")
)
.def("Mirrored",
(gp_Elips2d (gp_Elips2d::*)( const gp_Pnt2d & ) const) static_cast<gp_Elips2d (gp_Elips2d::*)( const gp_Pnt2d & ) const>(&gp_Elips2d::Mirrored),
R"#(Performs the symmetrical transformation of a ellipse with respect to the point theP which is the center of the symmetry)#" , py::arg("theP")
)
.def("Mirror",
(void (gp_Elips2d::*)( const gp_Ax2d & ) ) static_cast<void (gp_Elips2d::*)( const gp_Ax2d & ) >(&gp_Elips2d::Mirror),
R"#(None)#" , py::arg("theA")
)
.def("Mirrored",
(gp_Elips2d (gp_Elips2d::*)( const gp_Ax2d & ) const) static_cast<gp_Elips2d (gp_Elips2d::*)( const gp_Ax2d & ) const>(&gp_Elips2d::Mirrored),
R"#(Performs the symmetrical transformation of a ellipse with respect to an axis placement which is the axis of the symmetry.)#" , py::arg("theA")
)
.def("Rotate",
(void (gp_Elips2d::*)( const gp_Pnt2d & , const Standard_Real ) ) static_cast<void (gp_Elips2d::*)( const gp_Pnt2d & , const Standard_Real ) >(&gp_Elips2d::Rotate),
R"#(None)#" , py::arg("theP"), py::arg("theAng")
)
.def("Rotated",
(gp_Elips2d (gp_Elips2d::*)( const gp_Pnt2d & , const Standard_Real ) const) static_cast<gp_Elips2d (gp_Elips2d::*)( const gp_Pnt2d & , const Standard_Real ) const>(&gp_Elips2d::Rotated),
R"#(None)#" , py::arg("theP"), py::arg("theAng")
)
.def("Scale",
(void (gp_Elips2d::*)( const gp_Pnt2d & , const Standard_Real ) ) static_cast<void (gp_Elips2d::*)( const gp_Pnt2d & , const Standard_Real ) >(&gp_Elips2d::Scale),
R"#(None)#" , py::arg("theP"), py::arg("theS")
)
.def("Scaled",
(gp_Elips2d (gp_Elips2d::*)( const gp_Pnt2d & , const Standard_Real ) const) static_cast<gp_Elips2d (gp_Elips2d::*)( const gp_Pnt2d & , const Standard_Real ) const>(&gp_Elips2d::Scaled),
R"#(Scales a ellipse. theS is the scaling value.)#" , py::arg("theP"), py::arg("theS")
)
.def("Transform",
(void (gp_Elips2d::*)( const gp_Trsf2d & ) ) static_cast<void (gp_Elips2d::*)( const gp_Trsf2d & ) >(&gp_Elips2d::Transform),
R"#(None)#" , py::arg("theT")
)
.def("Transformed",
(gp_Elips2d (gp_Elips2d::*)( const gp_Trsf2d & ) const) static_cast<gp_Elips2d (gp_Elips2d::*)( const gp_Trsf2d & ) const>(&gp_Elips2d::Transformed),
R"#(Transforms an ellipse with the transformation theT from class Trsf2d.)#" , py::arg("theT")
)
.def("Translate",
(void (gp_Elips2d::*)( const gp_Vec2d & ) ) static_cast<void (gp_Elips2d::*)( const gp_Vec2d & ) >(&gp_Elips2d::Translate),
R"#(None)#" , py::arg("theV")
)
.def("Translated",
(gp_Elips2d (gp_Elips2d::*)( const gp_Vec2d & ) const) static_cast<gp_Elips2d (gp_Elips2d::*)( const gp_Vec2d & ) const>(&gp_Elips2d::Translated),
R"#(Translates a ellipse in the direction of the vector theV. The magnitude of the translation is the vector's magnitude.)#" , py::arg("theV")
)
.def("Translate",
(void (gp_Elips2d::*)( const gp_Pnt2d & , const gp_Pnt2d & ) ) static_cast<void (gp_Elips2d::*)( const gp_Pnt2d & , const gp_Pnt2d & ) >(&gp_Elips2d::Translate),
R"#(None)#" , py::arg("theP1"), py::arg("theP2")
)
.def("Translated",
(gp_Elips2d (gp_Elips2d::*)( const gp_Pnt2d & , const gp_Pnt2d & ) const) static_cast<gp_Elips2d (gp_Elips2d::*)( const gp_Pnt2d & , const gp_Pnt2d & ) const>(&gp_Elips2d::Translated),
R"#(Translates a ellipse from the point theP1 to the point theP2.)#" , py::arg("theP1"), py::arg("theP2")
)
.def("Directrix1",
(gp_Ax2d (gp_Elips2d::*)() const) static_cast<gp_Ax2d (gp_Elips2d::*)() const>(&gp_Elips2d::Directrix1),
R"#(This directrix is the line normal to the XAxis of the ellipse in the local plane (Z = 0) at a distance d = MajorRadius / e from the center of the ellipse, where e is the eccentricity of the ellipse. This line is parallel to the "YAxis". The intersection point between directrix1 and the "XAxis" is the location point of the directrix1. This point is on the positive side of the "XAxis".)#"
)
.def("Directrix2",
(gp_Ax2d (gp_Elips2d::*)() const) static_cast<gp_Ax2d (gp_Elips2d::*)() const>(&gp_Elips2d::Directrix2),
R"#(This line is obtained by the symmetrical transformation of "Directrix1" with respect to the minor axis of the ellipse.)#"
)
.def("Eccentricity",
(Standard_Real (gp_Elips2d::*)() const) static_cast<Standard_Real (gp_Elips2d::*)() const>(&gp_Elips2d::Eccentricity),
R"#(Returns the eccentricity of the ellipse between 0.0 and 1.0 If f is the distance between the center of the ellipse and the Focus1 then the eccentricity e = f / MajorRadius. Returns 0 if MajorRadius = 0.)#"
)
.def("Focus1",
(gp_Pnt2d (gp_Elips2d::*)() const) static_cast<gp_Pnt2d (gp_Elips2d::*)() const>(&gp_Elips2d::Focus1),
R"#(Returns the first focus of the ellipse. This focus is on the positive side of the major axis of the ellipse.)#"
)
.def("Focus2",
(gp_Pnt2d (gp_Elips2d::*)() const) static_cast<gp_Pnt2d (gp_Elips2d::*)() const>(&gp_Elips2d::Focus2),
R"#(Returns the second focus of the ellipse. This focus is on the negative side of the major axis of the ellipse.)#"
)
.def("Scale",
(void (gp_Elips2d::*)( const gp_Pnt2d & , const Standard_Real ) ) static_cast<void (gp_Elips2d::*)( const gp_Pnt2d & , const Standard_Real ) >(&gp_Elips2d::Scale),
R"#(None)#" , py::arg("theP"), py::arg("theS")
)
.def("Scaled",
(gp_Elips2d (gp_Elips2d::*)( const gp_Pnt2d & , const Standard_Real ) const) static_cast<gp_Elips2d (gp_Elips2d::*)( const gp_Pnt2d & , const Standard_Real ) const>(&gp_Elips2d::Scaled),
R"#(Scales a ellipse. theS is the scaling value.)#" , py::arg("theP"), py::arg("theS")
)
.def("Parameter",
(Standard_Real (gp_Elips2d::*)() const) static_cast<Standard_Real (gp_Elips2d::*)() const>(&gp_Elips2d::Parameter),
R"#(Returns p = (1 - e * e) * MajorRadius where e is the eccentricity of the ellipse. Returns 0 if MajorRadius = 0)#"
)
.def("Reversed",
(gp_Elips2d (gp_Elips2d::*)() const) static_cast<gp_Elips2d (gp_Elips2d::*)() const>(&gp_Elips2d::Reversed),
R"#(None)#"
)
.def("Transform",
(void (gp_Elips2d::*)( const gp_Trsf2d & ) ) static_cast<void (gp_Elips2d::*)( const gp_Trsf2d & ) >(&gp_Elips2d::Transform),
R"#(None)#" , py::arg("theT")
)
.def("Transformed",
(gp_Elips2d (gp_Elips2d::*)( const gp_Trsf2d & ) const) static_cast<gp_Elips2d (gp_Elips2d::*)( const gp_Trsf2d & ) const>(&gp_Elips2d::Transformed),
R"#(Transforms an ellipse with the transformation theT from class Trsf2d.)#" , py::arg("theT")
)
// methods using call by reference i.s.o. return
.def("Coefficients",
[]( gp_Elips2d &self ){
Standard_Real theA;
Standard_Real theB;
Standard_Real theC;
Standard_Real theD;
Standard_Real theE;
Standard_Real theF;
self.Coefficients(theA,theB,theC,theD,theE,theF);
return std::make_tuple(theA,theB,theC,theD,theE,theF); },
R"#(Returns the coefficients of the implicit equation of the ellipse. theA * (X**2) + theB * (Y**2) + 2*theC*(X*Y) + 2*theD*X + 2*theE*Y + theF = 0.)#"
)
// static methods
// static methods using call by reference i.s.o. return
// operators
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
.def("Location",
(const gp_Pnt2d & (gp_Elips2d::*)() const) static_cast<const gp_Pnt2d & (gp_Elips2d::*)() const>(&gp_Elips2d::Location),
R"#(Returns the center of the ellipse.)#"
)
.def("Axis",
(const gp_Ax22d & (gp_Elips2d::*)() const) static_cast<const gp_Ax22d & (gp_Elips2d::*)() const>(&gp_Elips2d::Axis),
R"#(Returns the major axis of the ellipse.)#"
)
;
// Class gp_GTrsf from ./opencascade/gp_GTrsf.hxx
klass = m.attr("gp_GTrsf");
// nested enums
static_cast<py::class_<gp_GTrsf , shared_ptr<gp_GTrsf> >>(klass)
// constructors
.def(py::init< >() )
.def(py::init< const gp_Trsf & >() , py::arg("theT") )
.def(py::init< const gp_Mat &,const gp_XYZ & >() , py::arg("theM"), py::arg("theV") )
// custom constructors
// methods
.def("SetAffinity",
(void (gp_GTrsf::*)( const gp_Ax1 & , const Standard_Real ) ) static_cast<void (gp_GTrsf::*)( const gp_Ax1 & , const Standard_Real ) >(&gp_GTrsf::SetAffinity),
R"#(Changes this transformation into an affinity of ratio theRatio with respect to the axis theA1. Note: an affinity is a point-by-point transformation that transforms any point P into a point P' such that if H is the orthogonal projection of P on the axis theA1 or the plane A2, the vectors HP and HP' satisfy: HP' = theRatio * HP.)#" , py::arg("theA1"), py::arg("theRatio")
)
.def("SetAffinity",
(void (gp_GTrsf::*)( const gp_Ax2 & , const Standard_Real ) ) static_cast<void (gp_GTrsf::*)( const gp_Ax2 & , const Standard_Real ) >(&gp_GTrsf::SetAffinity),
R"#(Changes this transformation into an affinity of ratio theRatio with respect to the plane defined by the origin, the "X Direction" and the "Y Direction" of coordinate system theA2. Note: an affinity is a point-by-point transformation that transforms any point P into a point P' such that if H is the orthogonal projection of P on the axis A1 or the plane theA2, the vectors HP and HP' satisfy: HP' = theRatio * HP.)#" , py::arg("theA2"), py::arg("theRatio")
)
.def("SetValue",
(void (gp_GTrsf::*)( const Standard_Integer , const Standard_Integer , const Standard_Real ) ) static_cast<void (gp_GTrsf::*)( const Standard_Integer , const Standard_Integer , const Standard_Real ) >(&gp_GTrsf::SetValue),
R"#(Replaces the coefficient (theRow, theCol) of the matrix representing this transformation by theValue. Raises OutOfRange if theRow < 1 or theRow > 3 or theCol < 1 or theCol > 4)#" , py::arg("theRow"), py::arg("theCol"), py::arg("theValue")
)
.def("SetVectorialPart",
(void (gp_GTrsf::*)( const gp_Mat & ) ) static_cast<void (gp_GTrsf::*)( const gp_Mat & ) >(&gp_GTrsf::SetVectorialPart),
R"#(Replaces the vectorial part of this transformation by theMatrix.)#" , py::arg("theMatrix")
)
.def("SetTranslationPart",
(void (gp_GTrsf::*)( const gp_XYZ & ) ) static_cast<void (gp_GTrsf::*)( const gp_XYZ & ) >(&gp_GTrsf::SetTranslationPart),
R"#(Replaces the translation part of this transformation by the coordinates of the number triple theCoord.)#" , py::arg("theCoord")
)
.def("SetTrsf",
(void (gp_GTrsf::*)( const gp_Trsf & ) ) static_cast<void (gp_GTrsf::*)( const gp_Trsf & ) >(&gp_GTrsf::SetTrsf),
R"#(Assigns the vectorial and translation parts of theT to this transformation.)#" , py::arg("theT")
)
.def("IsNegative",
(Standard_Boolean (gp_GTrsf::*)() const) static_cast<Standard_Boolean (gp_GTrsf::*)() const>(&gp_GTrsf::IsNegative),
R"#(Returns true if the determinant of the vectorial part of this transformation is negative.)#"
)
.def("IsSingular",
(Standard_Boolean (gp_GTrsf::*)() const) static_cast<Standard_Boolean (gp_GTrsf::*)() const>(&gp_GTrsf::IsSingular),
R"#(Returns true if this transformation is singular (and therefore, cannot be inverted). Note: The Gauss LU decomposition is used to invert the transformation matrix. Consequently, the transformation is considered as singular if the largest pivot found is less than or equal to gp::Resolution(). Warning If this transformation is singular, it cannot be inverted.)#"
)
.def("Form",
(gp_TrsfForm (gp_GTrsf::*)() const) static_cast<gp_TrsfForm (gp_GTrsf::*)() const>(&gp_GTrsf::Form),
R"#(Returns the nature of the transformation. It can be an identity transformation, a rotation, a translation, a mirror transformation (relative to a point, an axis or a plane), a scaling transformation, a compound transformation or some other type of transformation.)#"
)
.def("SetForm",
(void (gp_GTrsf::*)() ) static_cast<void (gp_GTrsf::*)() >(&gp_GTrsf::SetForm),
R"#(verify and set the shape of the GTrsf Other or CompoundTrsf Ex :)#"
)
.def("Value",
(Standard_Real (gp_GTrsf::*)( const Standard_Integer , const Standard_Integer ) const) static_cast<Standard_Real (gp_GTrsf::*)( const Standard_Integer , const Standard_Integer ) const>(&gp_GTrsf::Value),
R"#(Returns the coefficients of the global matrix of transformation. Raises OutOfRange if theRow < 1 or theRow > 3 or theCol < 1 or theCol > 4)#" , py::arg("theRow"), py::arg("theCol")
)
.def("Invert",
(void (gp_GTrsf::*)() ) static_cast<void (gp_GTrsf::*)() >(&gp_GTrsf::Invert),
R"#(None)#"
)
.def("Inverted",
(gp_GTrsf (gp_GTrsf::*)() const) static_cast<gp_GTrsf (gp_GTrsf::*)() const>(&gp_GTrsf::Inverted),
R"#(Computes the reverse transformation. Raises an exception if the matrix of the transformation is not inversible.)#"
)
.def("Multiplied",
(gp_GTrsf (gp_GTrsf::*)( const gp_GTrsf & ) const) static_cast<gp_GTrsf (gp_GTrsf::*)( const gp_GTrsf & ) const>(&gp_GTrsf::Multiplied),
R"#(Computes the transformation composed from theT and <me>. In a C++ implementation you can also write Tcomposed = <me> * theT. Example :)#" , py::arg("theT")
)
.def("Multiply",
(void (gp_GTrsf::*)( const gp_GTrsf & ) ) static_cast<void (gp_GTrsf::*)( const gp_GTrsf & ) >(&gp_GTrsf::Multiply),
R"#(Computes the transformation composed with <me> and theT. <me> = <me> * theT)#" , py::arg("theT")
)
.def("PreMultiply",
(void (gp_GTrsf::*)( const gp_GTrsf & ) ) static_cast<void (gp_GTrsf::*)( const gp_GTrsf & ) >(&gp_GTrsf::PreMultiply),
R"#(Computes the product of the transformation theT and this transformation and assigns the result to this transformation. this = theT * this)#" , py::arg("theT")
)
.def("Power",
(void (gp_GTrsf::*)( const Standard_Integer ) ) static_cast<void (gp_GTrsf::*)( const Standard_Integer ) >(&gp_GTrsf::Power),
R"#(None)#" , py::arg("theN")
)
.def("Powered",
(gp_GTrsf (gp_GTrsf::*)( const Standard_Integer ) const) static_cast<gp_GTrsf (gp_GTrsf::*)( const Standard_Integer ) const>(&gp_GTrsf::Powered),
R"#(Computes: - the product of this transformation multiplied by itself theN times, if theN is positive, or - the product of the inverse of this transformation multiplied by itself |theN| times, if theN is negative. If theN equals zero, the result is equal to the Identity transformation. I.e.: <me> * <me> * .......* <me>, theN time. if theN =0 <me> = Identity if theN < 0 <me> = <me>.Inverse() *...........* <me>.Inverse().)#" , py::arg("theN")
)
.def("Transforms",
(void (gp_GTrsf::*)( gp_XYZ & ) const) static_cast<void (gp_GTrsf::*)( gp_XYZ & ) const>(&gp_GTrsf::Transforms),
R"#(None)#" , py::arg("theCoord")
)
.def("Trsf",
(gp_Trsf (gp_GTrsf::*)() const) static_cast<gp_Trsf (gp_GTrsf::*)() const>(&gp_GTrsf::Trsf),
R"#(None)#"
)
.def("DumpJson",
(void (gp_GTrsf::*)( std::ostream & , Standard_Integer ) const) static_cast<void (gp_GTrsf::*)( std::ostream & , Standard_Integer ) const>(&gp_GTrsf::DumpJson),
R"#(Dumps the content of me into the stream)#" , py::arg("theOStream"), py::arg("theDepth")=static_cast<Standard_Integer>(- 1)
)
.def("SetAffinity",
(void (gp_GTrsf::*)( const gp_Ax1 & , const Standard_Real ) ) static_cast<void (gp_GTrsf::*)( const gp_Ax1 & , const Standard_Real ) >(&gp_GTrsf::SetAffinity),
R"#(Changes this transformation into an affinity of ratio theRatio with respect to the axis theA1. Note: an affinity is a point-by-point transformation that transforms any point P into a point P' such that if H is the orthogonal projection of P on the axis theA1 or the plane A2, the vectors HP and HP' satisfy: HP' = theRatio * HP.)#" , py::arg("theA1"), py::arg("theRatio")
)
.def("SetAffinity",
(void (gp_GTrsf::*)( const gp_Ax2 & , const Standard_Real ) ) static_cast<void (gp_GTrsf::*)( const gp_Ax2 & , const Standard_Real ) >(&gp_GTrsf::SetAffinity),
R"#(Changes this transformation into an affinity of ratio theRatio with respect to the plane defined by the origin, the "X Direction" and the "Y Direction" of coordinate system theA2. Note: an affinity is a point-by-point transformation that transforms any point P into a point P' such that if H is the orthogonal projection of P on the axis A1 or the plane theA2, the vectors HP and HP' satisfy: HP' = theRatio * HP.)#" , py::arg("theA2"), py::arg("theRatio")
)
.def("SetValue",
(void (gp_GTrsf::*)( const Standard_Integer , const Standard_Integer , const Standard_Real ) ) static_cast<void (gp_GTrsf::*)( const Standard_Integer , const Standard_Integer , const Standard_Real ) >(&gp_GTrsf::SetValue),
R"#(Replaces the coefficient (theRow, theCol) of the matrix representing this transformation by theValue. Raises OutOfRange if theRow < 1 or theRow > 3 or theCol < 1 or theCol > 4)#" , py::arg("theRow"), py::arg("theCol"), py::arg("theValue")
)
.def("Value",
(Standard_Real (gp_GTrsf::*)( const Standard_Integer , const Standard_Integer ) const) static_cast<Standard_Real (gp_GTrsf::*)( const Standard_Integer , const Standard_Integer ) const>(&gp_GTrsf::Value),
R"#(Returns the coefficients of the global matrix of transformation. Raises OutOfRange if theRow < 1 or theRow > 3 or theCol < 1 or theCol > 4)#" , py::arg("theRow"), py::arg("theCol")
)
.def("Transforms",
(void (gp_GTrsf::*)( gp_XYZ & ) const) static_cast<void (gp_GTrsf::*)( gp_XYZ & ) const>(&gp_GTrsf::Transforms),
R"#(None)#" , py::arg("theCoord")
)
.def("Trsf",
(gp_Trsf (gp_GTrsf::*)() const) static_cast<gp_Trsf (gp_GTrsf::*)() const>(&gp_GTrsf::Trsf),
R"#(None)#"
)
// methods using call by reference i.s.o. return
.def("Transforms",
[]( gp_GTrsf &self ){
Standard_Real theX;
Standard_Real theY;
Standard_Real theZ;
self.Transforms(theX,theY,theZ);
return std::make_tuple(theX,theY,theZ); },
R"#(Transforms a triplet XYZ with a GTrsf.)#"
)
.def("Transforms",
[]( gp_GTrsf &self ){
Standard_Real theX;
Standard_Real theY;
Standard_Real theZ;
self.Transforms(theX,theY,theZ);
return std::make_tuple(theX,theY,theZ); },
R"#(Transforms a triplet XYZ with a GTrsf.)#"
)
// static methods
// static methods using call by reference i.s.o. return
// operators
.def("__call__",
(Standard_Real (gp_GTrsf::*)( const Standard_Integer , const Standard_Integer ) const) static_cast<Standard_Real (gp_GTrsf::*)( const Standard_Integer , const Standard_Integer ) const>(&gp_GTrsf::operator()),
py::is_operator(),
R"#(None)#" , py::arg("theRow"), py::arg("theCol")
)
.def("__mul__",
(gp_GTrsf (gp_GTrsf::*)( const gp_GTrsf & ) const) static_cast<gp_GTrsf (gp_GTrsf::*)( const gp_GTrsf & ) const>(&gp_GTrsf::operator*),
py::is_operator(),
R"#(None)#" , py::arg("theT")
)
.def("__rmul__",
(gp_GTrsf (gp_GTrsf::*)( const gp_GTrsf & ) const) static_cast<gp_GTrsf (gp_GTrsf::*)( const gp_GTrsf & ) const>(&gp_GTrsf::operator*),
py::is_operator(),
R"#(None)#" , py::arg("theT")
)
.def("__imul__",
(void (gp_GTrsf::*)( const gp_GTrsf & ) ) static_cast<void (gp_GTrsf::*)( const gp_GTrsf & ) >(&gp_GTrsf::operator*=),
py::is_operator(),
R"#(None)#" , py::arg("theT")
)
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
.def("TranslationPart",
(const gp_XYZ & (gp_GTrsf::*)() const) static_cast<const gp_XYZ & (gp_GTrsf::*)() const>(&gp_GTrsf::TranslationPart),
R"#(Returns the translation part of the GTrsf.)#"
)
.def("VectorialPart",
(const gp_Mat & (gp_GTrsf::*)() const) static_cast<const gp_Mat & (gp_GTrsf::*)() const>(&gp_GTrsf::VectorialPart),
R"#(Computes the vectorial part of the GTrsf. The returned Matrix is a 3*3 matrix.)#"
)
;
// Class gp_GTrsf2d from ./opencascade/gp_GTrsf2d.hxx
klass = m.attr("gp_GTrsf2d");
// nested enums
static_cast<py::class_<gp_GTrsf2d , shared_ptr<gp_GTrsf2d> >>(klass)
// constructors
.def(py::init< >() )
.def(py::init< const gp_Trsf2d & >() , py::arg("theT") )
.def(py::init< const gp_Mat2d &,const gp_XY & >() , py::arg("theM"), py::arg("theV") )
// custom constructors
// methods
.def("SetAffinity",
(void (gp_GTrsf2d::*)( const gp_Ax2d & , const Standard_Real ) ) static_cast<void (gp_GTrsf2d::*)( const gp_Ax2d & , const Standard_Real ) >(&gp_GTrsf2d::SetAffinity),
R"#(Changes this transformation into an affinity of ratio theRatio with respect to the axis theA. Note: An affinity is a point-by-point transformation that transforms any point P into a point P' such that if H is the orthogonal projection of P on the axis theA, the vectors HP and HP' satisfy: HP' = theRatio * HP.)#" , py::arg("theA"), py::arg("theRatio")
)
.def("SetValue",
(void (gp_GTrsf2d::*)( const Standard_Integer , const Standard_Integer , const Standard_Real ) ) static_cast<void (gp_GTrsf2d::*)( const Standard_Integer , const Standard_Integer , const Standard_Real ) >(&gp_GTrsf2d::SetValue),
R"#(Replaces the coefficient (theRow, theCol) of the matrix representing this transformation by theValue, Raises OutOfRange if theRow < 1 or theRow > 2 or theCol < 1 or theCol > 3)#" , py::arg("theRow"), py::arg("theCol"), py::arg("theValue")
)
.def("SetTranslationPart",
(void (gp_GTrsf2d::*)( const gp_XY & ) ) static_cast<void (gp_GTrsf2d::*)( const gp_XY & ) >(&gp_GTrsf2d::SetTranslationPart),
R"#(Replaces the translation part of this transformation by the coordinates of the number pair theCoord.)#" , py::arg("theCoord")
)
.def("SetTrsf2d",
(void (gp_GTrsf2d::*)( const gp_Trsf2d & ) ) static_cast<void (gp_GTrsf2d::*)( const gp_Trsf2d & ) >(&gp_GTrsf2d::SetTrsf2d),
R"#(Assigns the vectorial and translation parts of theT to this transformation.)#" , py::arg("theT")
)
.def("SetVectorialPart",
(void (gp_GTrsf2d::*)( const gp_Mat2d & ) ) static_cast<void (gp_GTrsf2d::*)( const gp_Mat2d & ) >(&gp_GTrsf2d::SetVectorialPart),
R"#(Replaces the vectorial part of this transformation by theMatrix.)#" , py::arg("theMatrix")
)
.def("IsNegative",
(Standard_Boolean (gp_GTrsf2d::*)() const) static_cast<Standard_Boolean (gp_GTrsf2d::*)() const>(&gp_GTrsf2d::IsNegative),
R"#(Returns true if the determinant of the vectorial part of this transformation is negative.)#"
)
.def("IsSingular",
(Standard_Boolean (gp_GTrsf2d::*)() const) static_cast<Standard_Boolean (gp_GTrsf2d::*)() const>(&gp_GTrsf2d::IsSingular),
R"#(Returns true if this transformation is singular (and therefore, cannot be inverted). Note: The Gauss LU decomposition is used to invert the transformation matrix. Consequently, the transformation is considered as singular if the largest pivot found is less than or equal to gp::Resolution(). Warning If this transformation is singular, it cannot be inverted.)#"
)
.def("Form",
(gp_TrsfForm (gp_GTrsf2d::*)() const) static_cast<gp_TrsfForm (gp_GTrsf2d::*)() const>(&gp_GTrsf2d::Form),
R"#(Returns the nature of the transformation. It can be an identity transformation, a rotation, a translation, a mirror transformation (relative to a point or axis), a scaling transformation, a compound transformation or some other type of transformation.)#"
)
.def("Value",
(Standard_Real (gp_GTrsf2d::*)( const Standard_Integer , const Standard_Integer ) const) static_cast<Standard_Real (gp_GTrsf2d::*)( const Standard_Integer , const Standard_Integer ) const>(&gp_GTrsf2d::Value),
R"#(Returns the coefficients of the global matrix of transformation. Raised OutOfRange if theRow < 1 or theRow > 2 or theCol < 1 or theCol > 3)#" , py::arg("theRow"), py::arg("theCol")
)
.def("Invert",
(void (gp_GTrsf2d::*)() ) static_cast<void (gp_GTrsf2d::*)() >(&gp_GTrsf2d::Invert),
R"#(None)#"
)
.def("Inverted",
(gp_GTrsf2d (gp_GTrsf2d::*)() const) static_cast<gp_GTrsf2d (gp_GTrsf2d::*)() const>(&gp_GTrsf2d::Inverted),
R"#(Computes the reverse transformation. Raised an exception if the matrix of the transformation is not inversible.)#"
)
.def("Multiplied",
(gp_GTrsf2d (gp_GTrsf2d::*)( const gp_GTrsf2d & ) const) static_cast<gp_GTrsf2d (gp_GTrsf2d::*)( const gp_GTrsf2d & ) const>(&gp_GTrsf2d::Multiplied),
R"#(Computes the transformation composed with theT and <me>. In a C++ implementation you can also write Tcomposed = <me> * theT. Example :)#" , py::arg("theT")
)
.def("Multiply",
(void (gp_GTrsf2d::*)( const gp_GTrsf2d & ) ) static_cast<void (gp_GTrsf2d::*)( const gp_GTrsf2d & ) >(&gp_GTrsf2d::Multiply),
R"#(None)#" , py::arg("theT")
)
.def("PreMultiply",
(void (gp_GTrsf2d::*)( const gp_GTrsf2d & ) ) static_cast<void (gp_GTrsf2d::*)( const gp_GTrsf2d & ) >(&gp_GTrsf2d::PreMultiply),
R"#(Computes the product of the transformation theT and this transformation, and assigns the result to this transformation: this = theT * this)#" , py::arg("theT")
)
.def("Power",
(void (gp_GTrsf2d::*)( const Standard_Integer ) ) static_cast<void (gp_GTrsf2d::*)( const Standard_Integer ) >(&gp_GTrsf2d::Power),
R"#(None)#" , py::arg("theN")
)
.def("Powered",
(gp_GTrsf2d (gp_GTrsf2d::*)( const Standard_Integer ) const) static_cast<gp_GTrsf2d (gp_GTrsf2d::*)( const Standard_Integer ) const>(&gp_GTrsf2d::Powered),
R"#(Computes the following composition of transformations <me> * <me> * .......* <me>, theN time. if theN = 0 <me> = Identity if theN < 0 <me> = <me>.Inverse() *...........* <me>.Inverse().)#" , py::arg("theN")
)
.def("Transforms",
(void (gp_GTrsf2d::*)( gp_XY & ) const) static_cast<void (gp_GTrsf2d::*)( gp_XY & ) const>(&gp_GTrsf2d::Transforms),
R"#(None)#" , py::arg("theCoord")
)
.def("Transformed",
(gp_XY (gp_GTrsf2d::*)( const gp_XY & ) const) static_cast<gp_XY (gp_GTrsf2d::*)( const gp_XY & ) const>(&gp_GTrsf2d::Transformed),
R"#(None)#" , py::arg("theCoord")
)
.def("Trsf2d",
(gp_Trsf2d (gp_GTrsf2d::*)() const) static_cast<gp_Trsf2d (gp_GTrsf2d::*)() const>(&gp_GTrsf2d::Trsf2d),
R"#(Converts this transformation into a gp_Trsf2d transformation. Exceptions Standard_ConstructionError if this transformation cannot be converted, i.e. if its form is gp_Other.)#"
)
.def("SetTrsf2d",
(void (gp_GTrsf2d::*)( const gp_Trsf2d & ) ) static_cast<void (gp_GTrsf2d::*)( const gp_Trsf2d & ) >(&gp_GTrsf2d::SetTrsf2d),
R"#(Assigns the vectorial and translation parts of theT to this transformation.)#" , py::arg("theT")
)
.def("SetValue",
(void (gp_GTrsf2d::*)( const Standard_Integer , const Standard_Integer , const Standard_Real ) ) static_cast<void (gp_GTrsf2d::*)( const Standard_Integer , const Standard_Integer , const Standard_Real ) >(&gp_GTrsf2d::SetValue),
R"#(Replaces the coefficient (theRow, theCol) of the matrix representing this transformation by theValue, Raises OutOfRange if theRow < 1 or theRow > 2 or theCol < 1 or theCol > 3)#" , py::arg("theRow"), py::arg("theCol"), py::arg("theValue")
)
.def("Value",
(Standard_Real (gp_GTrsf2d::*)( const Standard_Integer , const Standard_Integer ) const) static_cast<Standard_Real (gp_GTrsf2d::*)( const Standard_Integer , const Standard_Integer ) const>(&gp_GTrsf2d::Value),
R"#(Returns the coefficients of the global matrix of transformation. Raised OutOfRange if theRow < 1 or theRow > 2 or theCol < 1 or theCol > 3)#" , py::arg("theRow"), py::arg("theCol")
)
.def("Transforms",
(void (gp_GTrsf2d::*)( gp_XY & ) const) static_cast<void (gp_GTrsf2d::*)( gp_XY & ) const>(&gp_GTrsf2d::Transforms),
R"#(None)#" , py::arg("theCoord")
)
// methods using call by reference i.s.o. return
.def("Transforms",
[]( gp_GTrsf2d &self ){
Standard_Real theX;
Standard_Real theY;
self.Transforms(theX,theY);
return std::make_tuple(theX,theY); },
R"#(Applies this transformation to the coordinates: - of the number pair Coord, or - X and Y.)#"
)
.def("Transforms",
[]( gp_GTrsf2d &self ){
Standard_Real theX;
Standard_Real theY;
self.Transforms(theX,theY);
return std::make_tuple(theX,theY); },
R"#(Applies this transformation to the coordinates: - of the number pair Coord, or - X and Y.)#"
)
// static methods
// static methods using call by reference i.s.o. return
// operators
.def("__call__",
(Standard_Real (gp_GTrsf2d::*)( const Standard_Integer , const Standard_Integer ) const) static_cast<Standard_Real (gp_GTrsf2d::*)( const Standard_Integer , const Standard_Integer ) const>(&gp_GTrsf2d::operator()),
py::is_operator(),
R"#(None)#" , py::arg("theRow"), py::arg("theCol")
)
.def("__mul__",
(gp_GTrsf2d (gp_GTrsf2d::*)( const gp_GTrsf2d & ) const) static_cast<gp_GTrsf2d (gp_GTrsf2d::*)( const gp_GTrsf2d & ) const>(&gp_GTrsf2d::operator*),
py::is_operator(),
R"#(None)#" , py::arg("theT")
)
.def("__rmul__",
(gp_GTrsf2d (gp_GTrsf2d::*)( const gp_GTrsf2d & ) const) static_cast<gp_GTrsf2d (gp_GTrsf2d::*)( const gp_GTrsf2d & ) const>(&gp_GTrsf2d::operator*),
py::is_operator(),
R"#(None)#" , py::arg("theT")
)
.def("__imul__",
(void (gp_GTrsf2d::*)( const gp_GTrsf2d & ) ) static_cast<void (gp_GTrsf2d::*)( const gp_GTrsf2d & ) >(&gp_GTrsf2d::operator*=),
py::is_operator(),
R"#(None)#" , py::arg("theT")
)
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
.def("TranslationPart",
(const gp_XY & (gp_GTrsf2d::*)() const) static_cast<const gp_XY & (gp_GTrsf2d::*)() const>(&gp_GTrsf2d::TranslationPart),
R"#(Returns the translation part of the GTrsf2d.)#"
)
.def("VectorialPart",
(const gp_Mat2d & (gp_GTrsf2d::*)() const) static_cast<const gp_Mat2d & (gp_GTrsf2d::*)() const>(&gp_GTrsf2d::VectorialPart),
R"#(Computes the vectorial part of the GTrsf2d. The returned Matrix is a 2*2 matrix.)#"
)
;
// Class gp_Hypr from ./opencascade/gp_Hypr.hxx
klass = m.attr("gp_Hypr");
// nested enums
static_cast<py::class_<gp_Hypr , shared_ptr<gp_Hypr> >>(klass)
// constructors
.def(py::init< >() )
.def(py::init< const gp_Ax2 &,const Standard_Real,const Standard_Real >() , py::arg("theA2"), py::arg("theMajorRadius"), py::arg("theMinorRadius") )
// custom constructors
// methods
.def("SetAxis",
(void (gp_Hypr::*)( const gp_Ax1 & ) ) static_cast<void (gp_Hypr::*)( const gp_Ax1 & ) >(&gp_Hypr::SetAxis),
R"#(Modifies this hyperbola, by redefining its local coordinate system so that: - its origin and "main Direction" become those of the axis theA1 (the "X Direction" and "Y Direction" are then recomputed in the same way as for any gp_Ax2). Raises ConstructionError if the direction of theA1 is parallel to the direction of the "XAxis" of the hyperbola.)#" , py::arg("theA1")
)
.def("SetLocation",
(void (gp_Hypr::*)( const gp_Pnt & ) ) static_cast<void (gp_Hypr::*)( const gp_Pnt & ) >(&gp_Hypr::SetLocation),
R"#(Modifies this hyperbola, by redefining its local coordinate system so that its origin becomes theP.)#" , py::arg("theP")
)
.def("SetMajorRadius",
(void (gp_Hypr::*)( const Standard_Real ) ) static_cast<void (gp_Hypr::*)( const Standard_Real ) >(&gp_Hypr::SetMajorRadius),
R"#(Modifies the major radius of this hyperbola. Exceptions Standard_ConstructionError if theMajorRadius is negative.)#" , py::arg("theMajorRadius")
)
.def("SetMinorRadius",
(void (gp_Hypr::*)( const Standard_Real ) ) static_cast<void (gp_Hypr::*)( const Standard_Real ) >(&gp_Hypr::SetMinorRadius),
R"#(Modifies the minor radius of this hyperbola. Exceptions Standard_ConstructionError if theMinorRadius is negative.)#" , py::arg("theMinorRadius")
)
.def("SetPosition",
(void (gp_Hypr::*)( const gp_Ax2 & ) ) static_cast<void (gp_Hypr::*)( const gp_Ax2 & ) >(&gp_Hypr::SetPosition),
R"#(Modifies this hyperbola, by redefining its local coordinate system so that it becomes A2.)#" , py::arg("theA2")
)
.def("Asymptote1",
(gp_Ax1 (gp_Hypr::*)() const) static_cast<gp_Ax1 (gp_Hypr::*)() const>(&gp_Hypr::Asymptote1),
R"#(In the local coordinate system of the hyperbola the equation of the hyperbola is (X*X)/(A*A) - (Y*Y)/(B*B) = 1.0 and the equation of the first asymptote is Y = (B/A)*X where A is the major radius and B is the minor radius. Raises ConstructionError if MajorRadius = 0.0)#"
)
.def("Asymptote2",
(gp_Ax1 (gp_Hypr::*)() const) static_cast<gp_Ax1 (gp_Hypr::*)() const>(&gp_Hypr::Asymptote2),
R"#(In the local coordinate system of the hyperbola the equation of the hyperbola is (X*X)/(A*A) - (Y*Y)/(B*B) = 1.0 and the equation of the first asymptote is Y = -(B/A)*X. where A is the major radius and B is the minor radius. Raises ConstructionError if MajorRadius = 0.0)#"
)
.def("ConjugateBranch1",
(gp_Hypr (gp_Hypr::*)() const) static_cast<gp_Hypr (gp_Hypr::*)() const>(&gp_Hypr::ConjugateBranch1),
R"#(Computes the branch of hyperbola which is on the positive side of the "YAxis" of <me>.)#"
)
.def("ConjugateBranch2",
(gp_Hypr (gp_Hypr::*)() const) static_cast<gp_Hypr (gp_Hypr::*)() const>(&gp_Hypr::ConjugateBranch2),
R"#(Computes the branch of hyperbola which is on the negative side of the "YAxis" of <me>.)#"
)
.def("Directrix1",
(gp_Ax1 (gp_Hypr::*)() const) static_cast<gp_Ax1 (gp_Hypr::*)() const>(&gp_Hypr::Directrix1),
R"#(This directrix is the line normal to the XAxis of the hyperbola in the local plane (Z = 0) at a distance d = MajorRadius / e from the center of the hyperbola, where e is the eccentricity of the hyperbola. This line is parallel to the "YAxis". The intersection point between the directrix1 and the "XAxis" is the "Location" point of the directrix1. This point is on the positive side of the "XAxis".)#"
)
.def("Directrix2",
(gp_Ax1 (gp_Hypr::*)() const) static_cast<gp_Ax1 (gp_Hypr::*)() const>(&gp_Hypr::Directrix2),
R"#(This line is obtained by the symmetrical transformation of "Directrix1" with respect to the "YAxis" of the hyperbola.)#"
)
.def("Eccentricity",
(Standard_Real (gp_Hypr::*)() const) static_cast<Standard_Real (gp_Hypr::*)() const>(&gp_Hypr::Eccentricity),
R"#(Returns the eccentricity of the hyperbola (e > 1). If f is the distance between the location of the hyperbola and the Focus1 then the eccentricity e = f / MajorRadius. Raises DomainError if MajorRadius = 0.0)#"
)
.def("Focal",
(Standard_Real (gp_Hypr::*)() const) static_cast<Standard_Real (gp_Hypr::*)() const>(&gp_Hypr::Focal),
R"#(Computes the focal distance. It is the distance between the the two focus of the hyperbola.)#"
)
.def("Focus1",
(gp_Pnt (gp_Hypr::*)() const) static_cast<gp_Pnt (gp_Hypr::*)() const>(&gp_Hypr::Focus1),
R"#(Returns the first focus of the hyperbola. This focus is on the positive side of the "XAxis" of the hyperbola.)#"
)
.def("Focus2",
(gp_Pnt (gp_Hypr::*)() const) static_cast<gp_Pnt (gp_Hypr::*)() const>(&gp_Hypr::Focus2),
R"#(Returns the second focus of the hyperbola. This focus is on the negative side of the "XAxis" of the hyperbola.)#"
)
.def("MajorRadius",
(Standard_Real (gp_Hypr::*)() const) static_cast<Standard_Real (gp_Hypr::*)() const>(&gp_Hypr::MajorRadius),
R"#(Returns the major radius of the hyperbola. It is the radius on the "XAxis" of the hyperbola.)#"
)
.def("MinorRadius",
(Standard_Real (gp_Hypr::*)() const) static_cast<Standard_Real (gp_Hypr::*)() const>(&gp_Hypr::MinorRadius),
R"#(Returns the minor radius of the hyperbola. It is the radius on the "YAxis" of the hyperbola.)#"
)
.def("OtherBranch",
(gp_Hypr (gp_Hypr::*)() const) static_cast<gp_Hypr (gp_Hypr::*)() const>(&gp_Hypr::OtherBranch),
R"#(Returns the branch of hyperbola obtained by doing the symmetrical transformation of <me> with respect to the "YAxis" of <me>.)#"
)
.def("Parameter",
(Standard_Real (gp_Hypr::*)() const) static_cast<Standard_Real (gp_Hypr::*)() const>(&gp_Hypr::Parameter),
R"#(Returns p = (e * e - 1) * MajorRadius where e is the eccentricity of the hyperbola. Raises DomainError if MajorRadius = 0.0)#"
)
.def("XAxis",
(gp_Ax1 (gp_Hypr::*)() const) static_cast<gp_Ax1 (gp_Hypr::*)() const>(&gp_Hypr::XAxis),
R"#(Computes an axis, whose - the origin is the center of this hyperbola, and - the unit vector is the "X Direction" of the local coordinate system of this hyperbola. These axes are, the major axis (the "X Axis") and of this hyperboReturns the "XAxis" of the hyperbola.)#"
)
.def("YAxis",
(gp_Ax1 (gp_Hypr::*)() const) static_cast<gp_Ax1 (gp_Hypr::*)() const>(&gp_Hypr::YAxis),
R"#(Computes an axis, whose - the origin is the center of this hyperbola, and - the unit vector is the "Y Direction" of the local coordinate system of this hyperbola. These axes are the minor axis (the "Y Axis") of this hyperbola)#"
)
.def("Mirror",
(void (gp_Hypr::*)( const gp_Pnt & ) ) static_cast<void (gp_Hypr::*)( const gp_Pnt & ) >(&gp_Hypr::Mirror),
R"#(None)#" , py::arg("theP")
)
.def("Mirrored",
(gp_Hypr (gp_Hypr::*)( const gp_Pnt & ) const) static_cast<gp_Hypr (gp_Hypr::*)( const gp_Pnt & ) const>(&gp_Hypr::Mirrored),
R"#(Performs the symmetrical transformation of an hyperbola with respect to the point theP which is the center of the symmetry.)#" , py::arg("theP")
)
.def("Mirror",
(void (gp_Hypr::*)( const gp_Ax1 & ) ) static_cast<void (gp_Hypr::*)( const gp_Ax1 & ) >(&gp_Hypr::Mirror),
R"#(None)#" , py::arg("theA1")
)
.def("Mirrored",
(gp_Hypr (gp_Hypr::*)( const gp_Ax1 & ) const) static_cast<gp_Hypr (gp_Hypr::*)( const gp_Ax1 & ) const>(&gp_Hypr::Mirrored),
R"#(Performs the symmetrical transformation of an hyperbola with respect to an axis placement which is the axis of the symmetry.)#" , py::arg("theA1")
)
.def("Mirror",
(void (gp_Hypr::*)( const gp_Ax2 & ) ) static_cast<void (gp_Hypr::*)( const gp_Ax2 & ) >(&gp_Hypr::Mirror),
R"#(None)#" , py::arg("theA2")
)
.def("Mirrored",
(gp_Hypr (gp_Hypr::*)( const gp_Ax2 & ) const) static_cast<gp_Hypr (gp_Hypr::*)( const gp_Ax2 & ) const>(&gp_Hypr::Mirrored),
R"#(Performs the symmetrical transformation of an hyperbola with respect to a plane. The axis placement theA2 locates the plane of the symmetry (Location, XDirection, YDirection).)#" , py::arg("theA2")
)
.def("Rotate",
(void (gp_Hypr::*)( const gp_Ax1 & , const Standard_Real ) ) static_cast<void (gp_Hypr::*)( const gp_Ax1 & , const Standard_Real ) >(&gp_Hypr::Rotate),
R"#(None)#" , py::arg("theA1"), py::arg("theAng")
)
.def("Rotated",
(gp_Hypr (gp_Hypr::*)( const gp_Ax1 & , const Standard_Real ) const) static_cast<gp_Hypr (gp_Hypr::*)( const gp_Ax1 & , const Standard_Real ) const>(&gp_Hypr::Rotated),
R"#(Rotates an hyperbola. theA1 is the axis of the rotation. theAng is the angular value of the rotation in radians.)#" , py::arg("theA1"), py::arg("theAng")
)
.def("Scale",
(void (gp_Hypr::*)( const gp_Pnt & , const Standard_Real ) ) static_cast<void (gp_Hypr::*)( const gp_Pnt & , const Standard_Real ) >(&gp_Hypr::Scale),
R"#(None)#" , py::arg("theP"), py::arg("theS")
)
.def("Scaled",
(gp_Hypr (gp_Hypr::*)( const gp_Pnt & , const Standard_Real ) const) static_cast<gp_Hypr (gp_Hypr::*)( const gp_Pnt & , const Standard_Real ) const>(&gp_Hypr::Scaled),
R"#(Scales an hyperbola. theS is the scaling value.)#" , py::arg("theP"), py::arg("theS")
)
.def("Transform",
(void (gp_Hypr::*)( const gp_Trsf & ) ) static_cast<void (gp_Hypr::*)( const gp_Trsf & ) >(&gp_Hypr::Transform),
R"#(None)#" , py::arg("theT")
)
.def("Transformed",
(gp_Hypr (gp_Hypr::*)( const gp_Trsf & ) const) static_cast<gp_Hypr (gp_Hypr::*)( const gp_Trsf & ) const>(&gp_Hypr::Transformed),
R"#(Transforms an hyperbola with the transformation theT from class Trsf.)#" , py::arg("theT")
)
.def("Translate",
(void (gp_Hypr::*)( const gp_Vec & ) ) static_cast<void (gp_Hypr::*)( const gp_Vec & ) >(&gp_Hypr::Translate),
R"#(None)#" , py::arg("theV")
)
.def("Translated",
(gp_Hypr (gp_Hypr::*)( const gp_Vec & ) const) static_cast<gp_Hypr (gp_Hypr::*)( const gp_Vec & ) const>(&gp_Hypr::Translated),
R"#(Translates an hyperbola in the direction of the vector theV. The magnitude of the translation is the vector's magnitude.)#" , py::arg("theV")
)
.def("Translate",
(void (gp_Hypr::*)( const gp_Pnt & , const gp_Pnt & ) ) static_cast<void (gp_Hypr::*)( const gp_Pnt & , const gp_Pnt & ) >(&gp_Hypr::Translate),
R"#(None)#" , py::arg("theP1"), py::arg("theP2")
)
.def("Translated",
(gp_Hypr (gp_Hypr::*)( const gp_Pnt & , const gp_Pnt & ) const) static_cast<gp_Hypr (gp_Hypr::*)( const gp_Pnt & , const gp_Pnt & ) const>(&gp_Hypr::Translated),
R"#(Translates an hyperbola from the point theP1 to the point theP2.)#" , py::arg("theP1"), py::arg("theP2")
)
.def("Asymptote1",
(gp_Ax1 (gp_Hypr::*)() const) static_cast<gp_Ax1 (gp_Hypr::*)() const>(&gp_Hypr::Asymptote1),
R"#(In the local coordinate system of the hyperbola the equation of the hyperbola is (X*X)/(A*A) - (Y*Y)/(B*B) = 1.0 and the equation of the first asymptote is Y = (B/A)*X where A is the major radius and B is the minor radius. Raises ConstructionError if MajorRadius = 0.0)#"
)
.def("Asymptote2",
(gp_Ax1 (gp_Hypr::*)() const) static_cast<gp_Ax1 (gp_Hypr::*)() const>(&gp_Hypr::Asymptote2),
R"#(In the local coordinate system of the hyperbola the equation of the hyperbola is (X*X)/(A*A) - (Y*Y)/(B*B) = 1.0 and the equation of the first asymptote is Y = -(B/A)*X. where A is the major radius and B is the minor radius. Raises ConstructionError if MajorRadius = 0.0)#"
)
.def("Focus1",
(gp_Pnt (gp_Hypr::*)() const) static_cast<gp_Pnt (gp_Hypr::*)() const>(&gp_Hypr::Focus1),
R"#(Returns the first focus of the hyperbola. This focus is on the positive side of the "XAxis" of the hyperbola.)#"
)
.def("Focus2",
(gp_Pnt (gp_Hypr::*)() const) static_cast<gp_Pnt (gp_Hypr::*)() const>(&gp_Hypr::Focus2),
R"#(Returns the second focus of the hyperbola. This focus is on the negative side of the "XAxis" of the hyperbola.)#"
)
.def("Scale",
(void (gp_Hypr::*)( const gp_Pnt & , const Standard_Real ) ) static_cast<void (gp_Hypr::*)( const gp_Pnt & , const Standard_Real ) >(&gp_Hypr::Scale),
R"#(None)#" , py::arg("theP"), py::arg("theS")
)
.def("Scaled",
(gp_Hypr (gp_Hypr::*)( const gp_Pnt & , const Standard_Real ) const) static_cast<gp_Hypr (gp_Hypr::*)( const gp_Pnt & , const Standard_Real ) const>(&gp_Hypr::Scaled),
R"#(Scales an hyperbola. theS is the scaling value.)#" , py::arg("theP"), py::arg("theS")
)
.def("Transform",
(void (gp_Hypr::*)( const gp_Trsf & ) ) static_cast<void (gp_Hypr::*)( const gp_Trsf & ) >(&gp_Hypr::Transform),
R"#(None)#" , py::arg("theT")
)
.def("Transformed",
(gp_Hypr (gp_Hypr::*)( const gp_Trsf & ) const) static_cast<gp_Hypr (gp_Hypr::*)( const gp_Trsf & ) const>(&gp_Hypr::Transformed),
R"#(Transforms an hyperbola with the transformation theT from class Trsf.)#" , py::arg("theT")
)
.def("Directrix1",
(gp_Ax1 (gp_Hypr::*)() const) static_cast<gp_Ax1 (gp_Hypr::*)() const>(&gp_Hypr::Directrix1),
R"#(This directrix is the line normal to the XAxis of the hyperbola in the local plane (Z = 0) at a distance d = MajorRadius / e from the center of the hyperbola, where e is the eccentricity of the hyperbola. This line is parallel to the "YAxis". The intersection point between the directrix1 and the "XAxis" is the "Location" point of the directrix1. This point is on the positive side of the "XAxis".)#"
)
.def("Directrix2",
(gp_Ax1 (gp_Hypr::*)() const) static_cast<gp_Ax1 (gp_Hypr::*)() const>(&gp_Hypr::Directrix2),
R"#(This line is obtained by the symmetrical transformation of "Directrix1" with respect to the "YAxis" of the hyperbola.)#"
)
// methods using call by reference i.s.o. return
// static methods
// static methods using call by reference i.s.o. return
// operators
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
.def("Axis",
(const gp_Ax1 & (gp_Hypr::*)() const) static_cast<const gp_Ax1 & (gp_Hypr::*)() const>(&gp_Hypr::Axis),
R"#(Returns the axis passing through the center, and normal to the plane of this hyperbola.)#"
)
.def("Location",
(const gp_Pnt & (gp_Hypr::*)() const) static_cast<const gp_Pnt & (gp_Hypr::*)() const>(&gp_Hypr::Location),
R"#(Returns the location point of the hyperbola. It is the intersection point between the "XAxis" and the "YAxis".)#"
)
.def("Position",
(const gp_Ax2 & (gp_Hypr::*)() const) static_cast<const gp_Ax2 & (gp_Hypr::*)() const>(&gp_Hypr::Position),
R"#(Returns the coordinate system of the hyperbola.)#"
)
;
// Class gp_Hypr2d from ./opencascade/gp_Hypr2d.hxx
klass = m.attr("gp_Hypr2d");
// nested enums
static_cast<py::class_<gp_Hypr2d , shared_ptr<gp_Hypr2d> >>(klass)
// constructors
.def(py::init< >() )
.def(py::init< const gp_Ax2d &,const Standard_Real,const Standard_Real,const Standard_Boolean >() , py::arg("theMajorAxis"), py::arg("theMajorRadius"), py::arg("theMinorRadius"), py::arg("theIsSense")=static_cast<const Standard_Boolean>(Standard_True) )
.def(py::init< const gp_Ax22d &,const Standard_Real,const Standard_Real >() , py::arg("theA"), py::arg("theMajorRadius"), py::arg("theMinorRadius") )
// custom constructors
// methods
.def("SetLocation",
(void (gp_Hypr2d::*)( const gp_Pnt2d & ) ) static_cast<void (gp_Hypr2d::*)( const gp_Pnt2d & ) >(&gp_Hypr2d::SetLocation),
R"#(Modifies this hyperbola, by redefining its local coordinate system so that its origin becomes theP.)#" , py::arg("theP")
)
.def("SetMajorRadius",
(void (gp_Hypr2d::*)( const Standard_Real ) ) static_cast<void (gp_Hypr2d::*)( const Standard_Real ) >(&gp_Hypr2d::SetMajorRadius),
R"#(Modifies the major or minor radius of this hyperbola. Exceptions Standard_ConstructionError if theMajorRadius or MinorRadius is negative.)#" , py::arg("theMajorRadius")
)
.def("SetMinorRadius",
(void (gp_Hypr2d::*)( const Standard_Real ) ) static_cast<void (gp_Hypr2d::*)( const Standard_Real ) >(&gp_Hypr2d::SetMinorRadius),
R"#(Modifies the major or minor radius of this hyperbola. Exceptions Standard_ConstructionError if MajorRadius or theMinorRadius is negative.)#" , py::arg("theMinorRadius")
)
.def("SetAxis",
(void (gp_Hypr2d::*)( const gp_Ax22d & ) ) static_cast<void (gp_Hypr2d::*)( const gp_Ax22d & ) >(&gp_Hypr2d::SetAxis),
R"#(Modifies this hyperbola, by redefining its local coordinate system so that it becomes theA.)#" , py::arg("theA")
)
.def("SetXAxis",
(void (gp_Hypr2d::*)( const gp_Ax2d & ) ) static_cast<void (gp_Hypr2d::*)( const gp_Ax2d & ) >(&gp_Hypr2d::SetXAxis),
R"#(Changes the major axis of the hyperbola. The minor axis is recomputed and the location of the hyperbola too.)#" , py::arg("theA")
)
.def("SetYAxis",
(void (gp_Hypr2d::*)( const gp_Ax2d & ) ) static_cast<void (gp_Hypr2d::*)( const gp_Ax2d & ) >(&gp_Hypr2d::SetYAxis),
R"#(Changes the minor axis of the hyperbola.The minor axis is recomputed and the location of the hyperbola too.)#" , py::arg("theA")
)
.def("Asymptote1",
(gp_Ax2d (gp_Hypr2d::*)() const) static_cast<gp_Ax2d (gp_Hypr2d::*)() const>(&gp_Hypr2d::Asymptote1),
R"#(In the local coordinate system of the hyperbola the equation of the hyperbola is (X*X)/(A*A) - (Y*Y)/(B*B) = 1.0 and the equation of the first asymptote is Y = (B/A)*X where A is the major radius of the hyperbola and B the minor radius of the hyperbola. Raises ConstructionError if MajorRadius = 0.0)#"
)
.def("Asymptote2",
(gp_Ax2d (gp_Hypr2d::*)() const) static_cast<gp_Ax2d (gp_Hypr2d::*)() const>(&gp_Hypr2d::Asymptote2),
R"#(In the local coordinate system of the hyperbola the equation of the hyperbola is (X*X)/(A*A) - (Y*Y)/(B*B) = 1.0 and the equation of the first asymptote is Y = -(B/A)*X where A is the major radius of the hyperbola and B the minor radius of the hyperbola. Raises ConstructionError if MajorRadius = 0.0)#"
)
.def("ConjugateBranch1",
(gp_Hypr2d (gp_Hypr2d::*)() const) static_cast<gp_Hypr2d (gp_Hypr2d::*)() const>(&gp_Hypr2d::ConjugateBranch1),
R"#(Computes the branch of hyperbola which is on the positive side of the "YAxis" of <me>.)#"
)
.def("ConjugateBranch2",
(gp_Hypr2d (gp_Hypr2d::*)() const) static_cast<gp_Hypr2d (gp_Hypr2d::*)() const>(&gp_Hypr2d::ConjugateBranch2),
R"#(Computes the branch of hyperbola which is on the negative side of the "YAxis" of <me>.)#"
)
.def("Directrix1",
(gp_Ax2d (gp_Hypr2d::*)() const) static_cast<gp_Ax2d (gp_Hypr2d::*)() const>(&gp_Hypr2d::Directrix1),
R"#(Computes the directrix which is the line normal to the XAxis of the hyperbola in the local plane (Z = 0) at a distance d = MajorRadius / e from the center of the hyperbola, where e is the eccentricity of the hyperbola. This line is parallel to the "YAxis". The intersection point between the "Directrix1" and the "XAxis" is the "Location" point of the "Directrix1". This point is on the positive side of the "XAxis".)#"
)
.def("Directrix2",
(gp_Ax2d (gp_Hypr2d::*)() const) static_cast<gp_Ax2d (gp_Hypr2d::*)() const>(&gp_Hypr2d::Directrix2),
R"#(This line is obtained by the symmetrical transformation of "Directrix1" with respect to the "YAxis" of the hyperbola.)#"
)
.def("Eccentricity",
(Standard_Real (gp_Hypr2d::*)() const) static_cast<Standard_Real (gp_Hypr2d::*)() const>(&gp_Hypr2d::Eccentricity),
R"#(Returns the eccentricity of the hyperbola (e > 1). If f is the distance between the location of the hyperbola and the Focus1 then the eccentricity e = f / MajorRadius. Raises DomainError if MajorRadius = 0.0.)#"
)
.def("Focal",
(Standard_Real (gp_Hypr2d::*)() const) static_cast<Standard_Real (gp_Hypr2d::*)() const>(&gp_Hypr2d::Focal),
R"#(Computes the focal distance. It is the distance between the "Location" of the hyperbola and "Focus1" or "Focus2".)#"
)
.def("Focus1",
(gp_Pnt2d (gp_Hypr2d::*)() const) static_cast<gp_Pnt2d (gp_Hypr2d::*)() const>(&gp_Hypr2d::Focus1),
R"#(Returns the first focus of the hyperbola. This focus is on the positive side of the "XAxis" of the hyperbola.)#"
)
.def("Focus2",
(gp_Pnt2d (gp_Hypr2d::*)() const) static_cast<gp_Pnt2d (gp_Hypr2d::*)() const>(&gp_Hypr2d::Focus2),
R"#(Returns the second focus of the hyperbola. This focus is on the negative side of the "XAxis" of the hyperbola.)#"
)
.def("MajorRadius",
(Standard_Real (gp_Hypr2d::*)() const) static_cast<Standard_Real (gp_Hypr2d::*)() const>(&gp_Hypr2d::MajorRadius),
R"#(Returns the major radius of the hyperbola (it is the radius corresponding to the "XAxis" of the hyperbola).)#"
)
.def("MinorRadius",
(Standard_Real (gp_Hypr2d::*)() const) static_cast<Standard_Real (gp_Hypr2d::*)() const>(&gp_Hypr2d::MinorRadius),
R"#(Returns the minor radius of the hyperbola (it is the radius corresponding to the "YAxis" of the hyperbola).)#"
)
.def("OtherBranch",
(gp_Hypr2d (gp_Hypr2d::*)() const) static_cast<gp_Hypr2d (gp_Hypr2d::*)() const>(&gp_Hypr2d::OtherBranch),
R"#(Returns the branch of hyperbola obtained by doing the symmetrical transformation of <me> with respect to the "YAxis" of <me>.)#"
)
.def("Parameter",
(Standard_Real (gp_Hypr2d::*)() const) static_cast<Standard_Real (gp_Hypr2d::*)() const>(&gp_Hypr2d::Parameter),
R"#(Returns p = (e * e - 1) * MajorRadius where e is the eccentricity of the hyperbola. Raises DomainError if MajorRadius = 0.0)#"
)
.def("XAxis",
(gp_Ax2d (gp_Hypr2d::*)() const) static_cast<gp_Ax2d (gp_Hypr2d::*)() const>(&gp_Hypr2d::XAxis),
R"#(Computes an axis whose - the origin is the center of this hyperbola, and - the unit vector is the "X Direction" or "Y Direction" respectively of the local coordinate system of this hyperbola Returns the major axis of the hyperbola.)#"
)
.def("YAxis",
(gp_Ax2d (gp_Hypr2d::*)() const) static_cast<gp_Ax2d (gp_Hypr2d::*)() const>(&gp_Hypr2d::YAxis),
R"#(Computes an axis whose - the origin is the center of this hyperbola, and - the unit vector is the "X Direction" or "Y Direction" respectively of the local coordinate system of this hyperbola Returns the minor axis of the hyperbola.)#"
)
.def("Reverse",
(void (gp_Hypr2d::*)() ) static_cast<void (gp_Hypr2d::*)() >(&gp_Hypr2d::Reverse),
R"#(None)#"
)
.def("Reversed",
(gp_Hypr2d (gp_Hypr2d::*)() const) static_cast<gp_Hypr2d (gp_Hypr2d::*)() const>(&gp_Hypr2d::Reversed),
R"#(Reverses the orientation of the local coordinate system of this hyperbola (the "Y Axis" is reversed). Therefore, the implicit orientation of this hyperbola is reversed. Note: - Reverse assigns the result to this hyperbola, while - Reversed creates a new one.)#"
)
.def("IsDirect",
(Standard_Boolean (gp_Hypr2d::*)() const) static_cast<Standard_Boolean (gp_Hypr2d::*)() const>(&gp_Hypr2d::IsDirect),
R"#(Returns true if the local coordinate system is direct and false in the other case.)#"
)
.def("Mirror",
(void (gp_Hypr2d::*)( const gp_Pnt2d & ) ) static_cast<void (gp_Hypr2d::*)( const gp_Pnt2d & ) >(&gp_Hypr2d::Mirror),
R"#(None)#" , py::arg("theP")
)
.def("Mirrored",
(gp_Hypr2d (gp_Hypr2d::*)( const gp_Pnt2d & ) const) static_cast<gp_Hypr2d (gp_Hypr2d::*)( const gp_Pnt2d & ) const>(&gp_Hypr2d::Mirrored),
R"#(Performs the symmetrical transformation of an hyperbola with respect to the point theP which is the center of the symmetry.)#" , py::arg("theP")
)
.def("Mirror",
(void (gp_Hypr2d::*)( const gp_Ax2d & ) ) static_cast<void (gp_Hypr2d::*)( const gp_Ax2d & ) >(&gp_Hypr2d::Mirror),
R"#(None)#" , py::arg("theA")
)
.def("Mirrored",
(gp_Hypr2d (gp_Hypr2d::*)( const gp_Ax2d & ) const) static_cast<gp_Hypr2d (gp_Hypr2d::*)( const gp_Ax2d & ) const>(&gp_Hypr2d::Mirrored),
R"#(Performs the symmetrical transformation of an hyperbola with respect to an axis placement which is the axis of the symmetry.)#" , py::arg("theA")
)
.def("Rotate",
(void (gp_Hypr2d::*)( const gp_Pnt2d & , const Standard_Real ) ) static_cast<void (gp_Hypr2d::*)( const gp_Pnt2d & , const Standard_Real ) >(&gp_Hypr2d::Rotate),
R"#(None)#" , py::arg("theP"), py::arg("theAng")
)
.def("Rotated",
(gp_Hypr2d (gp_Hypr2d::*)( const gp_Pnt2d & , const Standard_Real ) const) static_cast<gp_Hypr2d (gp_Hypr2d::*)( const gp_Pnt2d & , const Standard_Real ) const>(&gp_Hypr2d::Rotated),
R"#(Rotates an hyperbola. theP is the center of the rotation. theAng is the angular value of the rotation in radians.)#" , py::arg("theP"), py::arg("theAng")
)
.def("Scale",
(void (gp_Hypr2d::*)( const gp_Pnt2d & , const Standard_Real ) ) static_cast<void (gp_Hypr2d::*)( const gp_Pnt2d & , const Standard_Real ) >(&gp_Hypr2d::Scale),
R"#(None)#" , py::arg("theP"), py::arg("theS")
)
.def("Scaled",
(gp_Hypr2d (gp_Hypr2d::*)( const gp_Pnt2d & , const Standard_Real ) const) static_cast<gp_Hypr2d (gp_Hypr2d::*)( const gp_Pnt2d & , const Standard_Real ) const>(&gp_Hypr2d::Scaled),
R"#(Scales an hyperbola. <theS> is the scaling value. If <theS> is positive only the location point is modified. But if <theS> is negative the "XAxis" is reversed and the "YAxis" too.)#" , py::arg("theP"), py::arg("theS")
)
.def("Transform",
(void (gp_Hypr2d::*)( const gp_Trsf2d & ) ) static_cast<void (gp_Hypr2d::*)( const gp_Trsf2d & ) >(&gp_Hypr2d::Transform),
R"#(None)#" , py::arg("theT")
)
.def("Transformed",
(gp_Hypr2d (gp_Hypr2d::*)( const gp_Trsf2d & ) const) static_cast<gp_Hypr2d (gp_Hypr2d::*)( const gp_Trsf2d & ) const>(&gp_Hypr2d::Transformed),
R"#(Transforms an hyperbola with the transformation theT from class Trsf2d.)#" , py::arg("theT")
)
.def("Translate",
(void (gp_Hypr2d::*)( const gp_Vec2d & ) ) static_cast<void (gp_Hypr2d::*)( const gp_Vec2d & ) >(&gp_Hypr2d::Translate),
R"#(None)#" , py::arg("theV")
)
.def("Translated",
(gp_Hypr2d (gp_Hypr2d::*)( const gp_Vec2d & ) const) static_cast<gp_Hypr2d (gp_Hypr2d::*)( const gp_Vec2d & ) const>(&gp_Hypr2d::Translated),
R"#(Translates an hyperbola in the direction of the vector theV. The magnitude of the translation is the vector's magnitude.)#" , py::arg("theV")
)
.def("Translate",
(void (gp_Hypr2d::*)( const gp_Pnt2d & , const gp_Pnt2d & ) ) static_cast<void (gp_Hypr2d::*)( const gp_Pnt2d & , const gp_Pnt2d & ) >(&gp_Hypr2d::Translate),
R"#(None)#" , py::arg("theP1"), py::arg("theP2")
)
.def("Translated",
(gp_Hypr2d (gp_Hypr2d::*)( const gp_Pnt2d & , const gp_Pnt2d & ) const) static_cast<gp_Hypr2d (gp_Hypr2d::*)( const gp_Pnt2d & , const gp_Pnt2d & ) const>(&gp_Hypr2d::Translated),
R"#(Translates an hyperbola from the point theP1 to the point theP2.)#" , py::arg("theP1"), py::arg("theP2")
)
.def("Asymptote1",
(gp_Ax2d (gp_Hypr2d::*)() const) static_cast<gp_Ax2d (gp_Hypr2d::*)() const>(&gp_Hypr2d::Asymptote1),
R"#(In the local coordinate system of the hyperbola the equation of the hyperbola is (X*X)/(A*A) - (Y*Y)/(B*B) = 1.0 and the equation of the first asymptote is Y = (B/A)*X where A is the major radius of the hyperbola and B the minor radius of the hyperbola. Raises ConstructionError if MajorRadius = 0.0)#"
)
.def("Asymptote2",
(gp_Ax2d (gp_Hypr2d::*)() const) static_cast<gp_Ax2d (gp_Hypr2d::*)() const>(&gp_Hypr2d::Asymptote2),
R"#(In the local coordinate system of the hyperbola the equation of the hyperbola is (X*X)/(A*A) - (Y*Y)/(B*B) = 1.0 and the equation of the first asymptote is Y = -(B/A)*X where A is the major radius of the hyperbola and B the minor radius of the hyperbola. Raises ConstructionError if MajorRadius = 0.0)#"
)
.def("Directrix1",
(gp_Ax2d (gp_Hypr2d::*)() const) static_cast<gp_Ax2d (gp_Hypr2d::*)() const>(&gp_Hypr2d::Directrix1),
R"#(Computes the directrix which is the line normal to the XAxis of the hyperbola in the local plane (Z = 0) at a distance d = MajorRadius / e from the center of the hyperbola, where e is the eccentricity of the hyperbola. This line is parallel to the "YAxis". The intersection point between the "Directrix1" and the "XAxis" is the "Location" point of the "Directrix1". This point is on the positive side of the "XAxis".)#"
)
.def("Directrix2",
(gp_Ax2d (gp_Hypr2d::*)() const) static_cast<gp_Ax2d (gp_Hypr2d::*)() const>(&gp_Hypr2d::Directrix2),
R"#(This line is obtained by the symmetrical transformation of "Directrix1" with respect to the "YAxis" of the hyperbola.)#"
)
.def("Reversed",
(gp_Hypr2d (gp_Hypr2d::*)() const) static_cast<gp_Hypr2d (gp_Hypr2d::*)() const>(&gp_Hypr2d::Reversed),
R"#(Reverses the orientation of the local coordinate system of this hyperbola (the "Y Axis" is reversed). Therefore, the implicit orientation of this hyperbola is reversed. Note: - Reverse assigns the result to this hyperbola, while - Reversed creates a new one.)#"
)
.def("Scale",
(void (gp_Hypr2d::*)( const gp_Pnt2d & , const Standard_Real ) ) static_cast<void (gp_Hypr2d::*)( const gp_Pnt2d & , const Standard_Real ) >(&gp_Hypr2d::Scale),
R"#(None)#" , py::arg("theP"), py::arg("theS")
)
.def("Scaled",
(gp_Hypr2d (gp_Hypr2d::*)( const gp_Pnt2d & , const Standard_Real ) const) static_cast<gp_Hypr2d (gp_Hypr2d::*)( const gp_Pnt2d & , const Standard_Real ) const>(&gp_Hypr2d::Scaled),
R"#(Scales an hyperbola. <theS> is the scaling value. If <theS> is positive only the location point is modified. But if <theS> is negative the "XAxis" is reversed and the "YAxis" too.)#" , py::arg("theP"), py::arg("theS")
)
.def("Transform",
(void (gp_Hypr2d::*)( const gp_Trsf2d & ) ) static_cast<void (gp_Hypr2d::*)( const gp_Trsf2d & ) >(&gp_Hypr2d::Transform),
R"#(None)#" , py::arg("theT")
)
.def("Transformed",
(gp_Hypr2d (gp_Hypr2d::*)( const gp_Trsf2d & ) const) static_cast<gp_Hypr2d (gp_Hypr2d::*)( const gp_Trsf2d & ) const>(&gp_Hypr2d::Transformed),
R"#(Transforms an hyperbola with the transformation theT from class Trsf2d.)#" , py::arg("theT")
)
// methods using call by reference i.s.o. return
.def("Coefficients",
[]( gp_Hypr2d &self ){
Standard_Real theA;
Standard_Real theB;
Standard_Real theC;
Standard_Real theD;
Standard_Real theE;
Standard_Real theF;
self.Coefficients(theA,theB,theC,theD,theE,theF);
return std::make_tuple(theA,theB,theC,theD,theE,theF); },
R"#(Computes the coefficients of the implicit equation of the hyperbola : theA * (X**2) + theB * (Y**2) + 2*theC*(X*Y) + 2*theD*X + 2*theE*Y + theF = 0.)#"
)
// static methods
// static methods using call by reference i.s.o. return
// operators
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
.def("Location",
(const gp_Pnt2d & (gp_Hypr2d::*)() const) static_cast<const gp_Pnt2d & (gp_Hypr2d::*)() const>(&gp_Hypr2d::Location),
R"#(Returns the location point of the hyperbola. It is the intersection point between the "XAxis" and the "YAxis".)#"
)
.def("Axis",
(const gp_Ax22d & (gp_Hypr2d::*)() const) static_cast<const gp_Ax22d & (gp_Hypr2d::*)() const>(&gp_Hypr2d::Axis),
R"#(Returns the axisplacement of the hyperbola.)#"
)
;
// Class gp_Lin from ./opencascade/gp_Lin.hxx
klass = m.attr("gp_Lin");
// nested enums
static_cast<py::class_<gp_Lin , shared_ptr<gp_Lin> >>(klass)
// constructors
.def(py::init< >() )
.def(py::init< const gp_Ax1 & >() , py::arg("theA1") )
.def(py::init< const gp_Pnt &,const gp_Dir & >() , py::arg("theP"), py::arg("theV") )
// custom constructors
// methods
.def("Reverse",
(void (gp_Lin::*)() ) static_cast<void (gp_Lin::*)() >(&gp_Lin::Reverse),
R"#(None)#"
)
.def("Reversed",
(gp_Lin (gp_Lin::*)() const) static_cast<gp_Lin (gp_Lin::*)() const>(&gp_Lin::Reversed),
R"#(Reverses the direction of the line. Note: - Reverse assigns the result to this line, while - Reversed creates a new one.)#"
)
.def("SetDirection",
(void (gp_Lin::*)( const gp_Dir & ) ) static_cast<void (gp_Lin::*)( const gp_Dir & ) >(&gp_Lin::SetDirection),
R"#(Changes the direction of the line.)#" , py::arg("theV")
)
.def("SetLocation",
(void (gp_Lin::*)( const gp_Pnt & ) ) static_cast<void (gp_Lin::*)( const gp_Pnt & ) >(&gp_Lin::SetLocation),
R"#(Changes the location point (origin) of the line.)#" , py::arg("theP")
)
.def("SetPosition",
(void (gp_Lin::*)( const gp_Ax1 & ) ) static_cast<void (gp_Lin::*)( const gp_Ax1 & ) >(&gp_Lin::SetPosition),
R"#(Complete redefinition of the line. The "Location" point of <theA1> is the origin of the line. The "Direction" of <theA1> is the direction of the line.)#" , py::arg("theA1")
)
.def("Angle",
(Standard_Real (gp_Lin::*)( const gp_Lin & ) const) static_cast<Standard_Real (gp_Lin::*)( const gp_Lin & ) const>(&gp_Lin::Angle),
R"#(Computes the angle between two lines in radians.)#" , py::arg("theOther")
)
.def("Contains",
(Standard_Boolean (gp_Lin::*)( const gp_Pnt & , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Lin::*)( const gp_Pnt & , const Standard_Real ) const>(&gp_Lin::Contains),
R"#(Returns true if this line contains the point theP, that is, if the distance between point theP and this line is less than or equal to theLinearTolerance..)#" , py::arg("theP"), py::arg("theLinearTolerance")
)
.def("Distance",
(Standard_Real (gp_Lin::*)( const gp_Pnt & ) const) static_cast<Standard_Real (gp_Lin::*)( const gp_Pnt & ) const>(&gp_Lin::Distance),
R"#(Computes the distance between <me> and the point theP.)#" , py::arg("theP")
)
.def("Distance",
(Standard_Real (gp_Lin::*)( const gp_Lin & ) const) static_cast<Standard_Real (gp_Lin::*)( const gp_Lin & ) const>(&gp_Lin::Distance),
R"#(Computes the distance between two lines.)#" , py::arg("theOther")
)
.def("SquareDistance",
(Standard_Real (gp_Lin::*)( const gp_Pnt & ) const) static_cast<Standard_Real (gp_Lin::*)( const gp_Pnt & ) const>(&gp_Lin::SquareDistance),
R"#(Computes the square distance between <me> and the point theP.)#" , py::arg("theP")
)
.def("SquareDistance",
(Standard_Real (gp_Lin::*)( const gp_Lin & ) const) static_cast<Standard_Real (gp_Lin::*)( const gp_Lin & ) const>(&gp_Lin::SquareDistance),
R"#(Computes the square distance between two lines.)#" , py::arg("theOther")
)
.def("Normal",
(gp_Lin (gp_Lin::*)( const gp_Pnt & ) const) static_cast<gp_Lin (gp_Lin::*)( const gp_Pnt & ) const>(&gp_Lin::Normal),
R"#(Computes the line normal to the direction of <me>, passing through the point theP. Raises ConstructionError if the distance between <me> and the point theP is lower or equal to Resolution from gp because there is an infinity of solutions in 3D space.)#" , py::arg("theP")
)
.def("Mirror",
(void (gp_Lin::*)( const gp_Pnt & ) ) static_cast<void (gp_Lin::*)( const gp_Pnt & ) >(&gp_Lin::Mirror),
R"#(None)#" , py::arg("theP")
)
.def("Mirrored",
(gp_Lin (gp_Lin::*)( const gp_Pnt & ) const) static_cast<gp_Lin (gp_Lin::*)( const gp_Pnt & ) const>(&gp_Lin::Mirrored),
R"#(Performs the symmetrical transformation of a line with respect to the point theP which is the center of the symmetry.)#" , py::arg("theP")
)
.def("Mirror",
(void (gp_Lin::*)( const gp_Ax1 & ) ) static_cast<void (gp_Lin::*)( const gp_Ax1 & ) >(&gp_Lin::Mirror),
R"#(None)#" , py::arg("theA1")
)
.def("Mirrored",
(gp_Lin (gp_Lin::*)( const gp_Ax1 & ) const) static_cast<gp_Lin (gp_Lin::*)( const gp_Ax1 & ) const>(&gp_Lin::Mirrored),
R"#(Performs the symmetrical transformation of a line with respect to an axis placement which is the axis of the symmetry.)#" , py::arg("theA1")
)
.def("Mirror",
(void (gp_Lin::*)( const gp_Ax2 & ) ) static_cast<void (gp_Lin::*)( const gp_Ax2 & ) >(&gp_Lin::Mirror),
R"#(None)#" , py::arg("theA2")
)
.def("Mirrored",
(gp_Lin (gp_Lin::*)( const gp_Ax2 & ) const) static_cast<gp_Lin (gp_Lin::*)( const gp_Ax2 & ) const>(&gp_Lin::Mirrored),
R"#(Performs the symmetrical transformation of a line with respect to a plane. The axis placement <theA2> locates the plane of the symmetry : (Location, XDirection, YDirection).)#" , py::arg("theA2")
)
.def("Rotate",
(void (gp_Lin::*)( const gp_Ax1 & , const Standard_Real ) ) static_cast<void (gp_Lin::*)( const gp_Ax1 & , const Standard_Real ) >(&gp_Lin::Rotate),
R"#(None)#" , py::arg("theA1"), py::arg("theAng")
)
.def("Rotated",
(gp_Lin (gp_Lin::*)( const gp_Ax1 & , const Standard_Real ) const) static_cast<gp_Lin (gp_Lin::*)( const gp_Ax1 & , const Standard_Real ) const>(&gp_Lin::Rotated),
R"#(Rotates a line. A1 is the axis of the rotation. Ang is the angular value of the rotation in radians.)#" , py::arg("theA1"), py::arg("theAng")
)
.def("Scale",
(void (gp_Lin::*)( const gp_Pnt & , const Standard_Real ) ) static_cast<void (gp_Lin::*)( const gp_Pnt & , const Standard_Real ) >(&gp_Lin::Scale),
R"#(None)#" , py::arg("theP"), py::arg("theS")
)
.def("Scaled",
(gp_Lin (gp_Lin::*)( const gp_Pnt & , const Standard_Real ) const) static_cast<gp_Lin (gp_Lin::*)( const gp_Pnt & , const Standard_Real ) const>(&gp_Lin::Scaled),
R"#(Scales a line. theS is the scaling value. The "Location" point (origin) of the line is modified. The "Direction" is reversed if the scale is negative.)#" , py::arg("theP"), py::arg("theS")
)
.def("Transform",
(void (gp_Lin::*)( const gp_Trsf & ) ) static_cast<void (gp_Lin::*)( const gp_Trsf & ) >(&gp_Lin::Transform),
R"#(None)#" , py::arg("theT")
)
.def("Transformed",
(gp_Lin (gp_Lin::*)( const gp_Trsf & ) const) static_cast<gp_Lin (gp_Lin::*)( const gp_Trsf & ) const>(&gp_Lin::Transformed),
R"#(Transforms a line with the transformation theT from class Trsf.)#" , py::arg("theT")
)
.def("Translate",
(void (gp_Lin::*)( const gp_Vec & ) ) static_cast<void (gp_Lin::*)( const gp_Vec & ) >(&gp_Lin::Translate),
R"#(None)#" , py::arg("theV")
)
.def("Translated",
(gp_Lin (gp_Lin::*)( const gp_Vec & ) const) static_cast<gp_Lin (gp_Lin::*)( const gp_Vec & ) const>(&gp_Lin::Translated),
R"#(Translates a line in the direction of the vector theV. The magnitude of the translation is the vector's magnitude.)#" , py::arg("theV")
)
.def("Translate",
(void (gp_Lin::*)( const gp_Pnt & , const gp_Pnt & ) ) static_cast<void (gp_Lin::*)( const gp_Pnt & , const gp_Pnt & ) >(&gp_Lin::Translate),
R"#(None)#" , py::arg("theP1"), py::arg("theP2")
)
.def("Translated",
(gp_Lin (gp_Lin::*)( const gp_Pnt & , const gp_Pnt & ) const) static_cast<gp_Lin (gp_Lin::*)( const gp_Pnt & , const gp_Pnt & ) const>(&gp_Lin::Translated),
R"#(Translates a line from the point theP1 to the point theP2.)#" , py::arg("theP1"), py::arg("theP2")
)
.def("Distance",
(Standard_Real (gp_Lin::*)( const gp_Pnt & ) const) static_cast<Standard_Real (gp_Lin::*)( const gp_Pnt & ) const>(&gp_Lin::Distance),
R"#(Computes the distance between <me> and the point theP.)#" , py::arg("theP")
)
.def("SquareDistance",
(Standard_Real (gp_Lin::*)( const gp_Pnt & ) const) static_cast<Standard_Real (gp_Lin::*)( const gp_Pnt & ) const>(&gp_Lin::SquareDistance),
R"#(Computes the square distance between <me> and the point theP.)#" , py::arg("theP")
)
.def("Normal",
(gp_Lin (gp_Lin::*)( const gp_Pnt & ) const) static_cast<gp_Lin (gp_Lin::*)( const gp_Pnt & ) const>(&gp_Lin::Normal),
R"#(Computes the line normal to the direction of <me>, passing through the point theP. Raises ConstructionError if the distance between <me> and the point theP is lower or equal to Resolution from gp because there is an infinity of solutions in 3D space.)#" , py::arg("theP")
)
// methods using call by reference i.s.o. return
// static methods
// static methods using call by reference i.s.o. return
// operators
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
.def("Direction",
(const gp_Dir & (gp_Lin::*)() const) static_cast<const gp_Dir & (gp_Lin::*)() const>(&gp_Lin::Direction),
R"#(Returns the direction of the line.)#"
)
.def("Location",
(const gp_Pnt & (gp_Lin::*)() const) static_cast<const gp_Pnt & (gp_Lin::*)() const>(&gp_Lin::Location),
R"#(Returns the location point (origin) of the line.)#"
)
.def("Position",
(const gp_Ax1 & (gp_Lin::*)() const) static_cast<const gp_Ax1 & (gp_Lin::*)() const>(&gp_Lin::Position),
R"#(Returns the axis placement one axis with the same location and direction as <me>.)#"
)
;
// Class gp_Lin2d from ./opencascade/gp_Lin2d.hxx
klass = m.attr("gp_Lin2d");
// nested enums
static_cast<py::class_<gp_Lin2d , shared_ptr<gp_Lin2d> >>(klass)
// constructors
.def(py::init< >() )
.def(py::init< const gp_Ax2d & >() , py::arg("theA") )
.def(py::init< const gp_Pnt2d &,const gp_Dir2d & >() , py::arg("theP"), py::arg("theV") )
.def(py::init< const Standard_Real,const Standard_Real,const Standard_Real >() , py::arg("theA"), py::arg("theB"), py::arg("theC") )
// custom constructors
// methods
.def("Reverse",
(void (gp_Lin2d::*)() ) static_cast<void (gp_Lin2d::*)() >(&gp_Lin2d::Reverse),
R"#(None)#"
)
.def("Reversed",
(gp_Lin2d (gp_Lin2d::*)() const) static_cast<gp_Lin2d (gp_Lin2d::*)() const>(&gp_Lin2d::Reversed),
R"#(Reverses the positioning axis of this line. Note: - Reverse assigns the result to this line, while - Reversed creates a new one.)#"
)
.def("SetDirection",
(void (gp_Lin2d::*)( const gp_Dir2d & ) ) static_cast<void (gp_Lin2d::*)( const gp_Dir2d & ) >(&gp_Lin2d::SetDirection),
R"#(Changes the direction of the line.)#" , py::arg("theV")
)
.def("SetLocation",
(void (gp_Lin2d::*)( const gp_Pnt2d & ) ) static_cast<void (gp_Lin2d::*)( const gp_Pnt2d & ) >(&gp_Lin2d::SetLocation),
R"#(Changes the origin of the line.)#" , py::arg("theP")
)
.def("SetPosition",
(void (gp_Lin2d::*)( const gp_Ax2d & ) ) static_cast<void (gp_Lin2d::*)( const gp_Ax2d & ) >(&gp_Lin2d::SetPosition),
R"#(Complete redefinition of the line. The "Location" point of <theA> is the origin of the line. The "Direction" of <theA> is the direction of the line.)#" , py::arg("theA")
)
.def("Angle",
(Standard_Real (gp_Lin2d::*)( const gp_Lin2d & ) const) static_cast<Standard_Real (gp_Lin2d::*)( const gp_Lin2d & ) const>(&gp_Lin2d::Angle),
R"#(Computes the angle between two lines in radians.)#" , py::arg("theOther")
)
.def("Contains",
(Standard_Boolean (gp_Lin2d::*)( const gp_Pnt2d & , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Lin2d::*)( const gp_Pnt2d & , const Standard_Real ) const>(&gp_Lin2d::Contains),
R"#(Returns true if this line contains the point theP, that is, if the distance between point theP and this line is less than or equal to theLinearTolerance.)#" , py::arg("theP"), py::arg("theLinearTolerance")
)
.def("Distance",
(Standard_Real (gp_Lin2d::*)( const gp_Pnt2d & ) const) static_cast<Standard_Real (gp_Lin2d::*)( const gp_Pnt2d & ) const>(&gp_Lin2d::Distance),
R"#(Computes the distance between <me> and the point <theP>.)#" , py::arg("theP")
)
.def("Distance",
(Standard_Real (gp_Lin2d::*)( const gp_Lin2d & ) const) static_cast<Standard_Real (gp_Lin2d::*)( const gp_Lin2d & ) const>(&gp_Lin2d::Distance),
R"#(Computes the distance between two lines.)#" , py::arg("theOther")
)
.def("SquareDistance",
(Standard_Real (gp_Lin2d::*)( const gp_Pnt2d & ) const) static_cast<Standard_Real (gp_Lin2d::*)( const gp_Pnt2d & ) const>(&gp_Lin2d::SquareDistance),
R"#(Computes the square distance between <me> and the point <theP>.)#" , py::arg("theP")
)
.def("SquareDistance",
(Standard_Real (gp_Lin2d::*)( const gp_Lin2d & ) const) static_cast<Standard_Real (gp_Lin2d::*)( const gp_Lin2d & ) const>(&gp_Lin2d::SquareDistance),
R"#(Computes the square distance between two lines.)#" , py::arg("theOther")
)
.def("Normal",
(gp_Lin2d (gp_Lin2d::*)( const gp_Pnt2d & ) const) static_cast<gp_Lin2d (gp_Lin2d::*)( const gp_Pnt2d & ) const>(&gp_Lin2d::Normal),
R"#(Computes the line normal to the direction of <me>, passing through the point <theP>.)#" , py::arg("theP")
)
.def("Mirror",
(void (gp_Lin2d::*)( const gp_Pnt2d & ) ) static_cast<void (gp_Lin2d::*)( const gp_Pnt2d & ) >(&gp_Lin2d::Mirror),
R"#(None)#" , py::arg("theP")
)
.def("Mirrored",
(gp_Lin2d (gp_Lin2d::*)( const gp_Pnt2d & ) const) static_cast<gp_Lin2d (gp_Lin2d::*)( const gp_Pnt2d & ) const>(&gp_Lin2d::Mirrored),
R"#(Performs the symmetrical transformation of a line with respect to the point <theP> which is the center of the symmetry)#" , py::arg("theP")
)
.def("Mirror",
(void (gp_Lin2d::*)( const gp_Ax2d & ) ) static_cast<void (gp_Lin2d::*)( const gp_Ax2d & ) >(&gp_Lin2d::Mirror),
R"#(None)#" , py::arg("theA")
)
.def("Mirrored",
(gp_Lin2d (gp_Lin2d::*)( const gp_Ax2d & ) const) static_cast<gp_Lin2d (gp_Lin2d::*)( const gp_Ax2d & ) const>(&gp_Lin2d::Mirrored),
R"#(Performs the symmetrical transformation of a line with respect to an axis placement which is the axis of the symmetry.)#" , py::arg("theA")
)
.def("Rotate",
(void (gp_Lin2d::*)( const gp_Pnt2d & , const Standard_Real ) ) static_cast<void (gp_Lin2d::*)( const gp_Pnt2d & , const Standard_Real ) >(&gp_Lin2d::Rotate),
R"#(None)#" , py::arg("theP"), py::arg("theAng")
)
.def("Rotated",
(gp_Lin2d (gp_Lin2d::*)( const gp_Pnt2d & , const Standard_Real ) const) static_cast<gp_Lin2d (gp_Lin2d::*)( const gp_Pnt2d & , const Standard_Real ) const>(&gp_Lin2d::Rotated),
R"#(Rotates a line. theP is the center of the rotation. theAng is the angular value of the rotation in radians.)#" , py::arg("theP"), py::arg("theAng")
)
.def("Scale",
(void (gp_Lin2d::*)( const gp_Pnt2d & , const Standard_Real ) ) static_cast<void (gp_Lin2d::*)( const gp_Pnt2d & , const Standard_Real ) >(&gp_Lin2d::Scale),
R"#(None)#" , py::arg("theP"), py::arg("theS")
)
.def("Scaled",
(gp_Lin2d (gp_Lin2d::*)( const gp_Pnt2d & , const Standard_Real ) const) static_cast<gp_Lin2d (gp_Lin2d::*)( const gp_Pnt2d & , const Standard_Real ) const>(&gp_Lin2d::Scaled),
R"#(Scales a line. theS is the scaling value. Only the origin of the line is modified.)#" , py::arg("theP"), py::arg("theS")
)
.def("Transform",
(void (gp_Lin2d::*)( const gp_Trsf2d & ) ) static_cast<void (gp_Lin2d::*)( const gp_Trsf2d & ) >(&gp_Lin2d::Transform),
R"#(None)#" , py::arg("theT")
)
.def("Transformed",
(gp_Lin2d (gp_Lin2d::*)( const gp_Trsf2d & ) const) static_cast<gp_Lin2d (gp_Lin2d::*)( const gp_Trsf2d & ) const>(&gp_Lin2d::Transformed),
R"#(Transforms a line with the transformation theT from class Trsf2d.)#" , py::arg("theT")
)
.def("Translate",
(void (gp_Lin2d::*)( const gp_Vec2d & ) ) static_cast<void (gp_Lin2d::*)( const gp_Vec2d & ) >(&gp_Lin2d::Translate),
R"#(None)#" , py::arg("theV")
)
.def("Translated",
(gp_Lin2d (gp_Lin2d::*)( const gp_Vec2d & ) const) static_cast<gp_Lin2d (gp_Lin2d::*)( const gp_Vec2d & ) const>(&gp_Lin2d::Translated),
R"#(Translates a line in the direction of the vector theV. The magnitude of the translation is the vector's magnitude.)#" , py::arg("theV")
)
.def("Translate",
(void (gp_Lin2d::*)( const gp_Pnt2d & , const gp_Pnt2d & ) ) static_cast<void (gp_Lin2d::*)( const gp_Pnt2d & , const gp_Pnt2d & ) >(&gp_Lin2d::Translate),
R"#(None)#" , py::arg("theP1"), py::arg("theP2")
)
.def("Translated",
(gp_Lin2d (gp_Lin2d::*)( const gp_Pnt2d & , const gp_Pnt2d & ) const) static_cast<gp_Lin2d (gp_Lin2d::*)( const gp_Pnt2d & , const gp_Pnt2d & ) const>(&gp_Lin2d::Translated),
R"#(Translates a line from the point theP1 to the point theP2.)#" , py::arg("theP1"), py::arg("theP2")
)
.def("Distance",
(Standard_Real (gp_Lin2d::*)( const gp_Pnt2d & ) const) static_cast<Standard_Real (gp_Lin2d::*)( const gp_Pnt2d & ) const>(&gp_Lin2d::Distance),
R"#(Computes the distance between <me> and the point <theP>.)#" , py::arg("theP")
)
.def("Distance",
(Standard_Real (gp_Lin2d::*)( const gp_Lin2d & ) const) static_cast<Standard_Real (gp_Lin2d::*)( const gp_Lin2d & ) const>(&gp_Lin2d::Distance),
R"#(Computes the distance between two lines.)#" , py::arg("theOther")
)
.def("SquareDistance",
(Standard_Real (gp_Lin2d::*)( const gp_Pnt2d & ) const) static_cast<Standard_Real (gp_Lin2d::*)( const gp_Pnt2d & ) const>(&gp_Lin2d::SquareDistance),
R"#(Computes the square distance between <me> and the point <theP>.)#" , py::arg("theP")
)
.def("SquareDistance",
(Standard_Real (gp_Lin2d::*)( const gp_Lin2d & ) const) static_cast<Standard_Real (gp_Lin2d::*)( const gp_Lin2d & ) const>(&gp_Lin2d::SquareDistance),
R"#(Computes the square distance between two lines.)#" , py::arg("theOther")
)
// methods using call by reference i.s.o. return
.def("Coefficients",
[]( gp_Lin2d &self ){
Standard_Real theA;
Standard_Real theB;
Standard_Real theC;
self.Coefficients(theA,theB,theC);
return std::make_tuple(theA,theB,theC); },
R"#(Returns the normalized coefficients of the line : theA * X + theB * Y + theC = 0.)#"
)
// static methods
// static methods using call by reference i.s.o. return
// operators
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
.def("Direction",
(const gp_Dir2d & (gp_Lin2d::*)() const) static_cast<const gp_Dir2d & (gp_Lin2d::*)() const>(&gp_Lin2d::Direction),
R"#(Returns the direction of the line.)#"
)
.def("Location",
(const gp_Pnt2d & (gp_Lin2d::*)() const) static_cast<const gp_Pnt2d & (gp_Lin2d::*)() const>(&gp_Lin2d::Location),
R"#(Returns the location point (origin) of the line.)#"
)
.def("Position",
(const gp_Ax2d & (gp_Lin2d::*)() const) static_cast<const gp_Ax2d & (gp_Lin2d::*)() const>(&gp_Lin2d::Position),
R"#(Returns the axis placement one axis with the same location and direction as <me>.)#"
)
;
// Class gp_Mat from ./opencascade/gp_Mat.hxx
klass = m.attr("gp_Mat");
// nested enums
static_cast<py::class_<gp_Mat , shared_ptr<gp_Mat> >>(klass)
// constructors
.def(py::init< >() )
.def(py::init< const Standard_Real,const Standard_Real,const Standard_Real,const Standard_Real,const Standard_Real,const Standard_Real,const Standard_Real,const Standard_Real,const Standard_Real >() , py::arg("theA11"), py::arg("theA12"), py::arg("theA13"), py::arg("theA21"), py::arg("theA22"), py::arg("theA23"), py::arg("theA31"), py::arg("theA32"), py::arg("theA33") )
.def(py::init< const gp_XYZ &,const gp_XYZ &,const gp_XYZ & >() , py::arg("theCol1"), py::arg("theCol2"), py::arg("theCol3") )
// custom constructors
// methods
.def("SetCol",
(void (gp_Mat::*)( const Standard_Integer , const gp_XYZ & ) ) static_cast<void (gp_Mat::*)( const Standard_Integer , const gp_XYZ & ) >(&gp_Mat::SetCol),
R"#(Assigns the three coordinates of theValue to the column of index theCol of this matrix. Raises OutOfRange if theCol < 1 or theCol > 3.)#" , py::arg("theCol"), py::arg("theValue")
)
.def("SetCols",
(void (gp_Mat::*)( const gp_XYZ & , const gp_XYZ & , const gp_XYZ & ) ) static_cast<void (gp_Mat::*)( const gp_XYZ & , const gp_XYZ & , const gp_XYZ & ) >(&gp_Mat::SetCols),
R"#(Assigns the number triples theCol1, theCol2, theCol3 to the three columns of this matrix.)#" , py::arg("theCol1"), py::arg("theCol2"), py::arg("theCol3")
)
.def("SetCross",
(void (gp_Mat::*)( const gp_XYZ & ) ) static_cast<void (gp_Mat::*)( const gp_XYZ & ) >(&gp_Mat::SetCross),
R"#(Modifies the matrix M so that applying it to any number triple (X, Y, Z) produces the same result as the cross product of theRef and the number triple (X, Y, Z): i.e.: M * {X,Y,Z}t = theRef.Cross({X, Y ,Z}) this matrix is anti symmetric. To apply this matrix to the triplet {XYZ} is the same as to do the cross product between the triplet theRef and the triplet {XYZ}. Note: this matrix is anti-symmetric.)#" , py::arg("theRef")
)
.def("SetDiagonal",
(void (gp_Mat::*)( const Standard_Real , const Standard_Real , const Standard_Real ) ) static_cast<void (gp_Mat::*)( const Standard_Real , const Standard_Real , const Standard_Real ) >(&gp_Mat::SetDiagonal),
R"#(Modifies the main diagonal of the matrix. The other coefficients of the matrix are not modified.)#" , py::arg("theX1"), py::arg("theX2"), py::arg("theX3")
)
.def("SetDot",
(void (gp_Mat::*)( const gp_XYZ & ) ) static_cast<void (gp_Mat::*)( const gp_XYZ & ) >(&gp_Mat::SetDot),
R"#(Modifies this matrix so that applying it to any number triple (X, Y, Z) produces the same result as the scalar product of theRef and the number triple (X, Y, Z): this * (X,Y,Z) = theRef.(X,Y,Z) Note: this matrix is symmetric.)#" , py::arg("theRef")
)
.def("SetIdentity",
(void (gp_Mat::*)() ) static_cast<void (gp_Mat::*)() >(&gp_Mat::SetIdentity),
R"#(Modifies this matrix so that it represents the Identity matrix.)#"
)
.def("SetRotation",
(void (gp_Mat::*)( const gp_XYZ & , const Standard_Real ) ) static_cast<void (gp_Mat::*)( const gp_XYZ & , const Standard_Real ) >(&gp_Mat::SetRotation),
R"#(Modifies this matrix so that it represents a rotation. theAng is the angular value in radians and the XYZ axis gives the direction of the rotation. Raises ConstructionError if XYZ.Modulus() <= Resolution())#" , py::arg("theAxis"), py::arg("theAng")
)
.def("SetRow",
(void (gp_Mat::*)( const Standard_Integer , const gp_XYZ & ) ) static_cast<void (gp_Mat::*)( const Standard_Integer , const gp_XYZ & ) >(&gp_Mat::SetRow),
R"#(Assigns the three coordinates of Value to the row of index theRow of this matrix. Raises OutOfRange if theRow < 1 or theRow > 3.)#" , py::arg("theRow"), py::arg("theValue")
)
.def("SetRows",
(void (gp_Mat::*)( const gp_XYZ & , const gp_XYZ & , const gp_XYZ & ) ) static_cast<void (gp_Mat::*)( const gp_XYZ & , const gp_XYZ & , const gp_XYZ & ) >(&gp_Mat::SetRows),
R"#(Assigns the number triples theRow1, theRow2, theRow3 to the three rows of this matrix.)#" , py::arg("theRow1"), py::arg("theRow2"), py::arg("theRow3")
)
.def("SetScale",
(void (gp_Mat::*)( const Standard_Real ) ) static_cast<void (gp_Mat::*)( const Standard_Real ) >(&gp_Mat::SetScale),
R"#(Modifies the matrix so that it represents a scaling transformation, where theS is the scale factor. :)#" , py::arg("theS")
)
.def("SetValue",
(void (gp_Mat::*)( const Standard_Integer , const Standard_Integer , const Standard_Real ) ) static_cast<void (gp_Mat::*)( const Standard_Integer , const Standard_Integer , const Standard_Real ) >(&gp_Mat::SetValue),
R"#(Assigns <theValue> to the coefficient of row theRow, column theCol of this matrix. Raises OutOfRange if theRow < 1 or theRow > 3 or theCol < 1 or theCol > 3)#" , py::arg("theRow"), py::arg("theCol"), py::arg("theValue")
)
.def("Column",
(gp_XYZ (gp_Mat::*)( const Standard_Integer ) const) static_cast<gp_XYZ (gp_Mat::*)( const Standard_Integer ) const>(&gp_Mat::Column),
R"#(Returns the column of theCol index. Raises OutOfRange if theCol < 1 or theCol > 3)#" , py::arg("theCol")
)
.def("Determinant",
(Standard_Real (gp_Mat::*)() const) static_cast<Standard_Real (gp_Mat::*)() const>(&gp_Mat::Determinant),
R"#(Computes the determinant of the matrix.)#"
)
.def("Diagonal",
(gp_XYZ (gp_Mat::*)() const) static_cast<gp_XYZ (gp_Mat::*)() const>(&gp_Mat::Diagonal),
R"#(Returns the main diagonal of the matrix.)#"
)
.def("Row",
(gp_XYZ (gp_Mat::*)( const Standard_Integer ) const) static_cast<gp_XYZ (gp_Mat::*)( const Standard_Integer ) const>(&gp_Mat::Row),
R"#(returns the row of theRow index. Raises OutOfRange if theRow < 1 or theRow > 3)#" , py::arg("theRow")
)
.def("Value",
(const Standard_Real & (gp_Mat::*)( const Standard_Integer , const Standard_Integer ) const) static_cast<const Standard_Real & (gp_Mat::*)( const Standard_Integer , const Standard_Integer ) const>(&gp_Mat::Value),
R"#(Returns the coefficient of range (theRow, theCol) Raises OutOfRange if theRow < 1 or theRow > 3 or theCol < 1 or theCol > 3)#" , py::arg("theRow"), py::arg("theCol")
)
.def("ChangeValue",
(Standard_Real & (gp_Mat::*)( const Standard_Integer , const Standard_Integer ) ) static_cast<Standard_Real & (gp_Mat::*)( const Standard_Integer , const Standard_Integer ) >(&gp_Mat::ChangeValue),
R"#(Returns the coefficient of range (theRow, theCol) Raises OutOfRange if theRow < 1 or theRow > 3 or theCol < 1 or theCol > 3)#" , py::arg("theRow"), py::arg("theCol")
)
.def("IsSingular",
(Standard_Boolean (gp_Mat::*)() const) static_cast<Standard_Boolean (gp_Mat::*)() const>(&gp_Mat::IsSingular),
R"#(The Gauss LU decomposition is used to invert the matrix (see Math package) so the matrix is considered as singular if the largest pivot found is lower or equal to Resolution from gp.)#"
)
.def("Add",
(void (gp_Mat::*)( const gp_Mat & ) ) static_cast<void (gp_Mat::*)( const gp_Mat & ) >(&gp_Mat::Add),
R"#(None)#" , py::arg("theOther")
)
.def("Added",
(gp_Mat (gp_Mat::*)( const gp_Mat & ) const) static_cast<gp_Mat (gp_Mat::*)( const gp_Mat & ) const>(&gp_Mat::Added),
R"#(Computes the sum of this matrix and the matrix theOther for each coefficient of the matrix : <me>.Coef(i,j) + <theOther>.Coef(i,j))#" , py::arg("theOther")
)
.def("Divide",
(void (gp_Mat::*)( const Standard_Real ) ) static_cast<void (gp_Mat::*)( const Standard_Real ) >(&gp_Mat::Divide),
R"#(None)#" , py::arg("theScalar")
)
.def("Divided",
(gp_Mat (gp_Mat::*)( const Standard_Real ) const) static_cast<gp_Mat (gp_Mat::*)( const Standard_Real ) const>(&gp_Mat::Divided),
R"#(Divides all the coefficients of the matrix by Scalar)#" , py::arg("theScalar")
)
.def("Invert",
(void (gp_Mat::*)() ) static_cast<void (gp_Mat::*)() >(&gp_Mat::Invert),
R"#(None)#"
)
.def("Inverted",
(gp_Mat (gp_Mat::*)() const) static_cast<gp_Mat (gp_Mat::*)() const>(&gp_Mat::Inverted),
R"#(Inverses the matrix and raises if the matrix is singular. - Invert assigns the result to this matrix, while - Inverted creates a new one. Warning The Gauss LU decomposition is used to invert the matrix. Consequently, the matrix is considered as singular if the largest pivot found is less than or equal to gp::Resolution(). Exceptions Standard_ConstructionError if this matrix is singular, and therefore cannot be inverted.)#"
)
.def("Multiplied",
(gp_Mat (gp_Mat::*)( const gp_Mat & ) const) static_cast<gp_Mat (gp_Mat::*)( const gp_Mat & ) const>(&gp_Mat::Multiplied),
R"#(Computes the product of two matrices <me> * <Other>)#" , py::arg("theOther")
)
.def("Multiply",
(void (gp_Mat::*)( const gp_Mat & ) ) static_cast<void (gp_Mat::*)( const gp_Mat & ) >(&gp_Mat::Multiply),
R"#(Computes the product of two matrices <me> = <Other> * <me>.)#" , py::arg("theOther")
)
.def("PreMultiply",
(void (gp_Mat::*)( const gp_Mat & ) ) static_cast<void (gp_Mat::*)( const gp_Mat & ) >(&gp_Mat::PreMultiply),
R"#(None)#" , py::arg("theOther")
)
.def("Multiplied",
(gp_Mat (gp_Mat::*)( const Standard_Real ) const) static_cast<gp_Mat (gp_Mat::*)( const Standard_Real ) const>(&gp_Mat::Multiplied),
R"#(None)#" , py::arg("theScalar")
)
.def("Multiply",
(void (gp_Mat::*)( const Standard_Real ) ) static_cast<void (gp_Mat::*)( const Standard_Real ) >(&gp_Mat::Multiply),
R"#(Multiplies all the coefficients of the matrix by Scalar)#" , py::arg("theScalar")
)
.def("Power",
(void (gp_Mat::*)( const Standard_Integer ) ) static_cast<void (gp_Mat::*)( const Standard_Integer ) >(&gp_Mat::Power),
R"#(None)#" , py::arg("N")
)
.def("Powered",
(gp_Mat (gp_Mat::*)( const Standard_Integer ) const) static_cast<gp_Mat (gp_Mat::*)( const Standard_Integer ) const>(&gp_Mat::Powered),
R"#(Computes <me> = <me> * <me> * .......* <me>, theN time. if theN = 0 <me> = Identity if theN < 0 <me> = <me>.Invert() *...........* <me>.Invert(). If theN < 0 an exception will be raised if the matrix is not inversible)#" , py::arg("theN")
)
.def("Subtract",
(void (gp_Mat::*)( const gp_Mat & ) ) static_cast<void (gp_Mat::*)( const gp_Mat & ) >(&gp_Mat::Subtract),
R"#(None)#" , py::arg("theOther")
)
.def("Subtracted",
(gp_Mat (gp_Mat::*)( const gp_Mat & ) const) static_cast<gp_Mat (gp_Mat::*)( const gp_Mat & ) const>(&gp_Mat::Subtracted),
R"#(cOmputes for each coefficient of the matrix : <me>.Coef(i,j) - <theOther>.Coef(i,j))#" , py::arg("theOther")
)
.def("Transpose",
(void (gp_Mat::*)() ) static_cast<void (gp_Mat::*)() >(&gp_Mat::Transpose),
R"#(None)#"
)
.def("Transposed",
(gp_Mat (gp_Mat::*)() const) static_cast<gp_Mat (gp_Mat::*)() const>(&gp_Mat::Transposed),
R"#(Transposes the matrix. A(j, i) -> A (i, j))#"
)
.def("DumpJson",
(void (gp_Mat::*)( std::ostream & , Standard_Integer ) const) static_cast<void (gp_Mat::*)( std::ostream & , Standard_Integer ) const>(&gp_Mat::DumpJson),
R"#(Dumps the content of me into the stream)#" , py::arg("theOStream"), py::arg("theDepth")=static_cast<Standard_Integer>(- 1)
)
.def("Add",
(void (gp_Mat::*)( const gp_Mat & ) ) static_cast<void (gp_Mat::*)( const gp_Mat & ) >(&gp_Mat::Add),
R"#(None)#" , py::arg("theOther")
)
.def("Added",
(gp_Mat (gp_Mat::*)( const gp_Mat & ) const) static_cast<gp_Mat (gp_Mat::*)( const gp_Mat & ) const>(&gp_Mat::Added),
R"#(Computes the sum of this matrix and the matrix theOther for each coefficient of the matrix : <me>.Coef(i,j) + <theOther>.Coef(i,j))#" , py::arg("theOther")
)
.def("Divide",
(void (gp_Mat::*)( const Standard_Real ) ) static_cast<void (gp_Mat::*)( const Standard_Real ) >(&gp_Mat::Divide),
R"#(None)#" , py::arg("theScalar")
)
.def("Divided",
(gp_Mat (gp_Mat::*)( const Standard_Real ) const) static_cast<gp_Mat (gp_Mat::*)( const Standard_Real ) const>(&gp_Mat::Divided),
R"#(Divides all the coefficients of the matrix by Scalar)#" , py::arg("theScalar")
)
.def("Multiply",
(void (gp_Mat::*)( const gp_Mat & ) ) static_cast<void (gp_Mat::*)( const gp_Mat & ) >(&gp_Mat::Multiply),
R"#(Computes the product of two matrices <me> = <Other> * <me>.)#" , py::arg("theOther")
)
.def("PreMultiply",
(void (gp_Mat::*)( const gp_Mat & ) ) static_cast<void (gp_Mat::*)( const gp_Mat & ) >(&gp_Mat::PreMultiply),
R"#(None)#" , py::arg("theOther")
)
.def("Multiplied",
(gp_Mat (gp_Mat::*)( const Standard_Real ) const) static_cast<gp_Mat (gp_Mat::*)( const Standard_Real ) const>(&gp_Mat::Multiplied),
R"#(None)#" , py::arg("theScalar")
)
.def("Multiply",
(void (gp_Mat::*)( const Standard_Real ) ) static_cast<void (gp_Mat::*)( const Standard_Real ) >(&gp_Mat::Multiply),
R"#(Multiplies all the coefficients of the matrix by Scalar)#" , py::arg("theScalar")
)
.def("Subtract",
(void (gp_Mat::*)( const gp_Mat & ) ) static_cast<void (gp_Mat::*)( const gp_Mat & ) >(&gp_Mat::Subtract),
R"#(None)#" , py::arg("theOther")
)
.def("Subtracted",
(gp_Mat (gp_Mat::*)( const gp_Mat & ) const) static_cast<gp_Mat (gp_Mat::*)( const gp_Mat & ) const>(&gp_Mat::Subtracted),
R"#(cOmputes for each coefficient of the matrix : <me>.Coef(i,j) - <theOther>.Coef(i,j))#" , py::arg("theOther")
)
.def("Transpose",
(void (gp_Mat::*)() ) static_cast<void (gp_Mat::*)() >(&gp_Mat::Transpose),
R"#(None)#"
)
// methods using call by reference i.s.o. return
// static methods
// static methods using call by reference i.s.o. return
// operators
.def("__call__",
(const Standard_Real & (gp_Mat::*)( const Standard_Integer , const Standard_Integer ) const) static_cast<const Standard_Real & (gp_Mat::*)( const Standard_Integer , const Standard_Integer ) const>(&gp_Mat::operator()),
py::is_operator(),
R"#(None)#" , py::arg("theRow"), py::arg("theCol")
)
.def("__call__",
(Standard_Real & (gp_Mat::*)( const Standard_Integer , const Standard_Integer ) ) static_cast<Standard_Real & (gp_Mat::*)( const Standard_Integer , const Standard_Integer ) >(&gp_Mat::operator()),
py::is_operator(),
R"#(None)#" , py::arg("theRow"), py::arg("theCol")
)
.def("__iadd__",
(void (gp_Mat::*)( const gp_Mat & ) ) static_cast<void (gp_Mat::*)( const gp_Mat & ) >(&gp_Mat::operator+=),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
.def("__add__",
(gp_Mat (gp_Mat::*)( const gp_Mat & ) const) static_cast<gp_Mat (gp_Mat::*)( const gp_Mat & ) const>(&gp_Mat::operator+),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
.def("__itruediv__",
(void (gp_Mat::*)( const Standard_Real ) ) static_cast<void (gp_Mat::*)( const Standard_Real ) >(&gp_Mat::operator/=),
py::is_operator(),
R"#(None)#" , py::arg("theScalar")
)
.def("__truediv__",
(gp_Mat (gp_Mat::*)( const Standard_Real ) const) static_cast<gp_Mat (gp_Mat::*)( const Standard_Real ) const>(&gp_Mat::operator/),
py::is_operator(),
R"#(None)#" , py::arg("theScalar")
)
.def("__mul__",
(gp_Mat (gp_Mat::*)( const gp_Mat & ) const) static_cast<gp_Mat (gp_Mat::*)( const gp_Mat & ) const>(&gp_Mat::operator*),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
.def("__rmul__",
(gp_Mat (gp_Mat::*)( const gp_Mat & ) const) static_cast<gp_Mat (gp_Mat::*)( const gp_Mat & ) const>(&gp_Mat::operator*),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
.def("__imul__",
(void (gp_Mat::*)( const gp_Mat & ) ) static_cast<void (gp_Mat::*)( const gp_Mat & ) >(&gp_Mat::operator*=),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
.def("__mul__",
(gp_Mat (gp_Mat::*)( const Standard_Real ) const) static_cast<gp_Mat (gp_Mat::*)( const Standard_Real ) const>(&gp_Mat::operator*),
py::is_operator(),
R"#(None)#" , py::arg("theScalar")
)
.def("__rmul__",
(gp_Mat (gp_Mat::*)( const Standard_Real ) const) static_cast<gp_Mat (gp_Mat::*)( const Standard_Real ) const>(&gp_Mat::operator*),
py::is_operator(),
R"#(None)#" , py::arg("theScalar")
)
.def("__imul__",
(void (gp_Mat::*)( const Standard_Real ) ) static_cast<void (gp_Mat::*)( const Standard_Real ) >(&gp_Mat::operator*=),
py::is_operator(),
R"#(None)#" , py::arg("theScalar")
)
.def("__isub__",
(void (gp_Mat::*)( const gp_Mat & ) ) static_cast<void (gp_Mat::*)( const gp_Mat & ) >(&gp_Mat::operator-=),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
.def("__sub__",
(gp_Mat (gp_Mat::*)( const gp_Mat & ) const) static_cast<gp_Mat (gp_Mat::*)( const gp_Mat & ) const>(&gp_Mat::operator-),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
;
// Class gp_Mat2d from ./opencascade/gp_Mat2d.hxx
klass = m.attr("gp_Mat2d");
// nested enums
static_cast<py::class_<gp_Mat2d , shared_ptr<gp_Mat2d> >>(klass)
// constructors
.def(py::init< >() )
.def(py::init< const gp_XY &,const gp_XY & >() , py::arg("theCol1"), py::arg("theCol2") )
// custom constructors
// methods
.def("SetCol",
(void (gp_Mat2d::*)( const Standard_Integer , const gp_XY & ) ) static_cast<void (gp_Mat2d::*)( const Standard_Integer , const gp_XY & ) >(&gp_Mat2d::SetCol),
R"#(Assigns the two coordinates of theValue to the column of range theCol of this matrix Raises OutOfRange if theCol < 1 or theCol > 2.)#" , py::arg("theCol"), py::arg("theValue")
)
.def("SetCols",
(void (gp_Mat2d::*)( const gp_XY & , const gp_XY & ) ) static_cast<void (gp_Mat2d::*)( const gp_XY & , const gp_XY & ) >(&gp_Mat2d::SetCols),
R"#(Assigns the number pairs theCol1, theCol2 to the two columns of this matrix)#" , py::arg("theCol1"), py::arg("theCol2")
)
.def("SetDiagonal",
(void (gp_Mat2d::*)( const Standard_Real , const Standard_Real ) ) static_cast<void (gp_Mat2d::*)( const Standard_Real , const Standard_Real ) >(&gp_Mat2d::SetDiagonal),
R"#(Modifies the main diagonal of the matrix. The other coefficients of the matrix are not modified.)#" , py::arg("theX1"), py::arg("theX2")
)
.def("SetIdentity",
(void (gp_Mat2d::*)() ) static_cast<void (gp_Mat2d::*)() >(&gp_Mat2d::SetIdentity),
R"#(Modifies this matrix, so that it represents the Identity matrix.)#"
)
.def("SetRotation",
(void (gp_Mat2d::*)( const Standard_Real ) ) static_cast<void (gp_Mat2d::*)( const Standard_Real ) >(&gp_Mat2d::SetRotation),
R"#(Modifies this matrix, so that it represents a rotation. theAng is the angular value in radian of the rotation.)#" , py::arg("theAng")
)
.def("SetRow",
(void (gp_Mat2d::*)( const Standard_Integer , const gp_XY & ) ) static_cast<void (gp_Mat2d::*)( const Standard_Integer , const gp_XY & ) >(&gp_Mat2d::SetRow),
R"#(Assigns the two coordinates of theValue to the row of index theRow of this matrix. Raises OutOfRange if theRow < 1 or theRow > 2.)#" , py::arg("theRow"), py::arg("theValue")
)
.def("SetRows",
(void (gp_Mat2d::*)( const gp_XY & , const gp_XY & ) ) static_cast<void (gp_Mat2d::*)( const gp_XY & , const gp_XY & ) >(&gp_Mat2d::SetRows),
R"#(Assigns the number pairs theRow1, theRow2 to the two rows of this matrix.)#" , py::arg("theRow1"), py::arg("theRow2")
)
.def("SetScale",
(void (gp_Mat2d::*)( const Standard_Real ) ) static_cast<void (gp_Mat2d::*)( const Standard_Real ) >(&gp_Mat2d::SetScale),
R"#(Modifies the matrix such that it represents a scaling transformation, where theS is the scale factor :)#" , py::arg("theS")
)
.def("SetValue",
(void (gp_Mat2d::*)( const Standard_Integer , const Standard_Integer , const Standard_Real ) ) static_cast<void (gp_Mat2d::*)( const Standard_Integer , const Standard_Integer , const Standard_Real ) >(&gp_Mat2d::SetValue),
R"#(Assigns <theValue> to the coefficient of row theRow, column theCol of this matrix. Raises OutOfRange if theRow < 1 or theRow > 2 or theCol < 1 or theCol > 2)#" , py::arg("theRow"), py::arg("theCol"), py::arg("theValue")
)
.def("Column",
(gp_XY (gp_Mat2d::*)( const Standard_Integer ) const) static_cast<gp_XY (gp_Mat2d::*)( const Standard_Integer ) const>(&gp_Mat2d::Column),
R"#(Returns the column of theCol index. Raises OutOfRange if theCol < 1 or theCol > 2)#" , py::arg("theCol")
)
.def("Determinant",
(Standard_Real (gp_Mat2d::*)() const) static_cast<Standard_Real (gp_Mat2d::*)() const>(&gp_Mat2d::Determinant),
R"#(Computes the determinant of the matrix.)#"
)
.def("Diagonal",
(gp_XY (gp_Mat2d::*)() const) static_cast<gp_XY (gp_Mat2d::*)() const>(&gp_Mat2d::Diagonal),
R"#(Returns the main diagonal of the matrix.)#"
)
.def("Row",
(gp_XY (gp_Mat2d::*)( const Standard_Integer ) const) static_cast<gp_XY (gp_Mat2d::*)( const Standard_Integer ) const>(&gp_Mat2d::Row),
R"#(Returns the row of index theRow. Raised if theRow < 1 or theRow > 2)#" , py::arg("theRow")
)
.def("Value",
(const Standard_Real & (gp_Mat2d::*)( const Standard_Integer , const Standard_Integer ) const) static_cast<const Standard_Real & (gp_Mat2d::*)( const Standard_Integer , const Standard_Integer ) const>(&gp_Mat2d::Value),
R"#(Returns the coefficient of range (ttheheRow, theCol) Raises OutOfRange if theRow < 1 or theRow > 2 or theCol < 1 or theCol > 2)#" , py::arg("theRow"), py::arg("theCol")
)
.def("ChangeValue",
(Standard_Real & (gp_Mat2d::*)( const Standard_Integer , const Standard_Integer ) ) static_cast<Standard_Real & (gp_Mat2d::*)( const Standard_Integer , const Standard_Integer ) >(&gp_Mat2d::ChangeValue),
R"#(Returns the coefficient of range (theRow, theCol) Raises OutOfRange if theRow < 1 or theRow > 2 or theCol < 1 or theCol > 2)#" , py::arg("theRow"), py::arg("theCol")
)
.def("IsSingular",
(Standard_Boolean (gp_Mat2d::*)() const) static_cast<Standard_Boolean (gp_Mat2d::*)() const>(&gp_Mat2d::IsSingular),
R"#(Returns true if this matrix is singular (and therefore, cannot be inverted). The Gauss LU decomposition is used to invert the matrix so the matrix is considered as singular if the largest pivot found is lower or equal to Resolution from gp.)#"
)
.def("Add",
(void (gp_Mat2d::*)( const gp_Mat2d & ) ) static_cast<void (gp_Mat2d::*)( const gp_Mat2d & ) >(&gp_Mat2d::Add),
R"#(None)#" , py::arg("Other")
)
.def("Added",
(gp_Mat2d (gp_Mat2d::*)( const gp_Mat2d & ) const) static_cast<gp_Mat2d (gp_Mat2d::*)( const gp_Mat2d & ) const>(&gp_Mat2d::Added),
R"#(Computes the sum of this matrix and the matrix theOther.for each coefficient of the matrix : Note: - operator += assigns the result to this matrix, while - operator + creates a new one.)#" , py::arg("theOther")
)
.def("Divide",
(void (gp_Mat2d::*)( const Standard_Real ) ) static_cast<void (gp_Mat2d::*)( const Standard_Real ) >(&gp_Mat2d::Divide),
R"#(None)#" , py::arg("theScalar")
)
.def("Divided",
(gp_Mat2d (gp_Mat2d::*)( const Standard_Real ) const) static_cast<gp_Mat2d (gp_Mat2d::*)( const Standard_Real ) const>(&gp_Mat2d::Divided),
R"#(Divides all the coefficients of the matrix by a scalar.)#" , py::arg("theScalar")
)
.def("Invert",
(void (gp_Mat2d::*)() ) static_cast<void (gp_Mat2d::*)() >(&gp_Mat2d::Invert),
R"#(None)#"
)
.def("Inverted",
(gp_Mat2d (gp_Mat2d::*)() const) static_cast<gp_Mat2d (gp_Mat2d::*)() const>(&gp_Mat2d::Inverted),
R"#(Inverses the matrix and raises exception if the matrix is singular.)#"
)
.def("Multiplied",
(gp_Mat2d (gp_Mat2d::*)( const gp_Mat2d & ) const) static_cast<gp_Mat2d (gp_Mat2d::*)( const gp_Mat2d & ) const>(&gp_Mat2d::Multiplied),
R"#(None)#" , py::arg("theOther")
)
.def("Multiply",
(void (gp_Mat2d::*)( const gp_Mat2d & ) ) static_cast<void (gp_Mat2d::*)( const gp_Mat2d & ) >(&gp_Mat2d::Multiply),
R"#(Computes the product of two matrices <me> * <theOther>)#" , py::arg("theOther")
)
.def("PreMultiply",
(void (gp_Mat2d::*)( const gp_Mat2d & ) ) static_cast<void (gp_Mat2d::*)( const gp_Mat2d & ) >(&gp_Mat2d::PreMultiply),
R"#(Modifies this matrix by premultiplying it by the matrix Other <me> = theOther * <me>.)#" , py::arg("theOther")
)
.def("Multiplied",
(gp_Mat2d (gp_Mat2d::*)( const Standard_Real ) const) static_cast<gp_Mat2d (gp_Mat2d::*)( const Standard_Real ) const>(&gp_Mat2d::Multiplied),
R"#(None)#" , py::arg("theScalar")
)
.def("Multiply",
(void (gp_Mat2d::*)( const Standard_Real ) ) static_cast<void (gp_Mat2d::*)( const Standard_Real ) >(&gp_Mat2d::Multiply),
R"#(Multiplies all the coefficients of the matrix by a scalar.)#" , py::arg("theScalar")
)
.def("Power",
(void (gp_Mat2d::*)( const Standard_Integer ) ) static_cast<void (gp_Mat2d::*)( const Standard_Integer ) >(&gp_Mat2d::Power),
R"#(None)#" , py::arg("theN")
)
.def("Powered",
(gp_Mat2d (gp_Mat2d::*)( const Standard_Integer ) const) static_cast<gp_Mat2d (gp_Mat2d::*)( const Standard_Integer ) const>(&gp_Mat2d::Powered),
R"#(computes <me> = <me> * <me> * .......* <me>, theN time. if theN = 0 <me> = Identity if theN < 0 <me> = <me>.Invert() *...........* <me>.Invert(). If theN < 0 an exception can be raised if the matrix is not inversible)#" , py::arg("theN")
)
.def("Subtract",
(void (gp_Mat2d::*)( const gp_Mat2d & ) ) static_cast<void (gp_Mat2d::*)( const gp_Mat2d & ) >(&gp_Mat2d::Subtract),
R"#(None)#" , py::arg("theOther")
)
.def("Subtracted",
(gp_Mat2d (gp_Mat2d::*)( const gp_Mat2d & ) const) static_cast<gp_Mat2d (gp_Mat2d::*)( const gp_Mat2d & ) const>(&gp_Mat2d::Subtracted),
R"#(Computes for each coefficient of the matrix :)#" , py::arg("theOther")
)
.def("Transpose",
(void (gp_Mat2d::*)() ) static_cast<void (gp_Mat2d::*)() >(&gp_Mat2d::Transpose),
R"#(None)#"
)
.def("Transposed",
(gp_Mat2d (gp_Mat2d::*)() const) static_cast<gp_Mat2d (gp_Mat2d::*)() const>(&gp_Mat2d::Transposed),
R"#(Transposes the matrix. A(j, i) -> A (i, j))#"
)
.def("SetRotation",
(void (gp_Mat2d::*)( const Standard_Real ) ) static_cast<void (gp_Mat2d::*)( const Standard_Real ) >(&gp_Mat2d::SetRotation),
R"#(Modifies this matrix, so that it represents a rotation. theAng is the angular value in radian of the rotation.)#" , py::arg("theAng")
)
.def("Add",
(void (gp_Mat2d::*)( const gp_Mat2d & ) ) static_cast<void (gp_Mat2d::*)( const gp_Mat2d & ) >(&gp_Mat2d::Add),
R"#(None)#" , py::arg("theOther")
)
.def("Added",
(gp_Mat2d (gp_Mat2d::*)( const gp_Mat2d & ) const) static_cast<gp_Mat2d (gp_Mat2d::*)( const gp_Mat2d & ) const>(&gp_Mat2d::Added),
R"#(Computes the sum of this matrix and the matrix theOther.for each coefficient of the matrix : Note: - operator += assigns the result to this matrix, while - operator + creates a new one.)#" , py::arg("theOther")
)
.def("Divide",
(void (gp_Mat2d::*)( const Standard_Real ) ) static_cast<void (gp_Mat2d::*)( const Standard_Real ) >(&gp_Mat2d::Divide),
R"#(None)#" , py::arg("theScalar")
)
.def("Divided",
(gp_Mat2d (gp_Mat2d::*)( const Standard_Real ) const) static_cast<gp_Mat2d (gp_Mat2d::*)( const Standard_Real ) const>(&gp_Mat2d::Divided),
R"#(Divides all the coefficients of the matrix by a scalar.)#" , py::arg("theScalar")
)
.def("Multiply",
(void (gp_Mat2d::*)( const gp_Mat2d & ) ) static_cast<void (gp_Mat2d::*)( const gp_Mat2d & ) >(&gp_Mat2d::Multiply),
R"#(Computes the product of two matrices <me> * <theOther>)#" , py::arg("theOther")
)
.def("PreMultiply",
(void (gp_Mat2d::*)( const gp_Mat2d & ) ) static_cast<void (gp_Mat2d::*)( const gp_Mat2d & ) >(&gp_Mat2d::PreMultiply),
R"#(Modifies this matrix by premultiplying it by the matrix Other <me> = theOther * <me>.)#" , py::arg("theOther")
)
.def("Multiplied",
(gp_Mat2d (gp_Mat2d::*)( const Standard_Real ) const) static_cast<gp_Mat2d (gp_Mat2d::*)( const Standard_Real ) const>(&gp_Mat2d::Multiplied),
R"#(None)#" , py::arg("theScalar")
)
.def("Multiply",
(void (gp_Mat2d::*)( const Standard_Real ) ) static_cast<void (gp_Mat2d::*)( const Standard_Real ) >(&gp_Mat2d::Multiply),
R"#(Multiplies all the coefficients of the matrix by a scalar.)#" , py::arg("theScalar")
)
.def("Subtract",
(void (gp_Mat2d::*)( const gp_Mat2d & ) ) static_cast<void (gp_Mat2d::*)( const gp_Mat2d & ) >(&gp_Mat2d::Subtract),
R"#(None)#" , py::arg("theOther")
)
.def("Subtracted",
(gp_Mat2d (gp_Mat2d::*)( const gp_Mat2d & ) const) static_cast<gp_Mat2d (gp_Mat2d::*)( const gp_Mat2d & ) const>(&gp_Mat2d::Subtracted),
R"#(Computes for each coefficient of the matrix :)#" , py::arg("theOther")
)
.def("Transpose",
(void (gp_Mat2d::*)() ) static_cast<void (gp_Mat2d::*)() >(&gp_Mat2d::Transpose),
R"#(None)#"
)
.def("Transposed",
(gp_Mat2d (gp_Mat2d::*)() const) static_cast<gp_Mat2d (gp_Mat2d::*)() const>(&gp_Mat2d::Transposed),
R"#(Transposes the matrix. A(j, i) -> A (i, j))#"
)
// methods using call by reference i.s.o. return
// static methods
// static methods using call by reference i.s.o. return
// operators
.def("__call__",
(const Standard_Real & (gp_Mat2d::*)( const Standard_Integer , const Standard_Integer ) const) static_cast<const Standard_Real & (gp_Mat2d::*)( const Standard_Integer , const Standard_Integer ) const>(&gp_Mat2d::operator()),
py::is_operator(),
R"#(None)#" , py::arg("theRow"), py::arg("theCol")
)
.def("__call__",
(Standard_Real & (gp_Mat2d::*)( const Standard_Integer , const Standard_Integer ) ) static_cast<Standard_Real & (gp_Mat2d::*)( const Standard_Integer , const Standard_Integer ) >(&gp_Mat2d::operator()),
py::is_operator(),
R"#(None)#" , py::arg("theRow"), py::arg("theCol")
)
.def("__iadd__",
(void (gp_Mat2d::*)( const gp_Mat2d & ) ) static_cast<void (gp_Mat2d::*)( const gp_Mat2d & ) >(&gp_Mat2d::operator+=),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
.def("__add__",
(gp_Mat2d (gp_Mat2d::*)( const gp_Mat2d & ) const) static_cast<gp_Mat2d (gp_Mat2d::*)( const gp_Mat2d & ) const>(&gp_Mat2d::operator+),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
.def("__itruediv__",
(void (gp_Mat2d::*)( const Standard_Real ) ) static_cast<void (gp_Mat2d::*)( const Standard_Real ) >(&gp_Mat2d::operator/=),
py::is_operator(),
R"#(None)#" , py::arg("theScalar")
)
.def("__truediv__",
(gp_Mat2d (gp_Mat2d::*)( const Standard_Real ) const) static_cast<gp_Mat2d (gp_Mat2d::*)( const Standard_Real ) const>(&gp_Mat2d::operator/),
py::is_operator(),
R"#(None)#" , py::arg("theScalar")
)
.def("__mul__",
(gp_Mat2d (gp_Mat2d::*)( const gp_Mat2d & ) const) static_cast<gp_Mat2d (gp_Mat2d::*)( const gp_Mat2d & ) const>(&gp_Mat2d::operator*),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
.def("__rmul__",
(gp_Mat2d (gp_Mat2d::*)( const gp_Mat2d & ) const) static_cast<gp_Mat2d (gp_Mat2d::*)( const gp_Mat2d & ) const>(&gp_Mat2d::operator*),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
.def("__mul__",
(gp_Mat2d (gp_Mat2d::*)( const Standard_Real ) const) static_cast<gp_Mat2d (gp_Mat2d::*)( const Standard_Real ) const>(&gp_Mat2d::operator*),
py::is_operator(),
R"#(None)#" , py::arg("theScalar")
)
.def("__rmul__",
(gp_Mat2d (gp_Mat2d::*)( const Standard_Real ) const) static_cast<gp_Mat2d (gp_Mat2d::*)( const Standard_Real ) const>(&gp_Mat2d::operator*),
py::is_operator(),
R"#(None)#" , py::arg("theScalar")
)
.def("__imul__",
(void (gp_Mat2d::*)( const Standard_Real ) ) static_cast<void (gp_Mat2d::*)( const Standard_Real ) >(&gp_Mat2d::operator*=),
py::is_operator(),
R"#(None)#" , py::arg("theScalar")
)
.def("__isub__",
(void (gp_Mat2d::*)( const gp_Mat2d & ) ) static_cast<void (gp_Mat2d::*)( const gp_Mat2d & ) >(&gp_Mat2d::operator-=),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
.def("__sub__",
(gp_Mat2d (gp_Mat2d::*)( const gp_Mat2d & ) const) static_cast<gp_Mat2d (gp_Mat2d::*)( const gp_Mat2d & ) const>(&gp_Mat2d::operator-),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
;
// Class gp_Parab from ./opencascade/gp_Parab.hxx
klass = m.attr("gp_Parab");
// nested enums
static_cast<py::class_<gp_Parab , shared_ptr<gp_Parab> >>(klass)
// constructors
.def(py::init< >() )
.def(py::init< const gp_Ax2 &,const Standard_Real >() , py::arg("theA2"), py::arg("theFocal") )
.def(py::init< const gp_Ax1 &,const gp_Pnt & >() , py::arg("theD"), py::arg("theF") )
// custom constructors
// methods
.def("SetAxis",
(void (gp_Parab::*)( const gp_Ax1 & ) ) static_cast<void (gp_Parab::*)( const gp_Ax1 & ) >(&gp_Parab::SetAxis),
R"#(Modifies this parabola by redefining its local coordinate system so that - its origin and "main Direction" become those of the axis theA1 (the "X Direction" and "Y Direction" are then recomputed in the same way as for any gp_Ax2) Raises ConstructionError if the direction of theA1 is parallel to the previous XAxis of the parabola.)#" , py::arg("theA1")
)
.def("SetFocal",
(void (gp_Parab::*)( const Standard_Real ) ) static_cast<void (gp_Parab::*)( const Standard_Real ) >(&gp_Parab::SetFocal),
R"#(Changes the focal distance of the parabola. Raises ConstructionError if theFocal < 0.0)#" , py::arg("theFocal")
)
.def("SetLocation",
(void (gp_Parab::*)( const gp_Pnt & ) ) static_cast<void (gp_Parab::*)( const gp_Pnt & ) >(&gp_Parab::SetLocation),
R"#(Changes the location of the parabola. It is the vertex of the parabola.)#" , py::arg("theP")
)
.def("SetPosition",
(void (gp_Parab::*)( const gp_Ax2 & ) ) static_cast<void (gp_Parab::*)( const gp_Ax2 & ) >(&gp_Parab::SetPosition),
R"#(Changes the local coordinate system of the parabola.)#" , py::arg("theA2")
)
.def("Directrix",
(gp_Ax1 (gp_Parab::*)() const) static_cast<gp_Ax1 (gp_Parab::*)() const>(&gp_Parab::Directrix),
R"#(Computes the directrix of this parabola. The directrix is: - a line parallel to the "Y Direction" of the local coordinate system of this parabola, and - located on the negative side of the axis of symmetry, at a distance from the apex which is equal to the focal length of this parabola. The directrix is returned as an axis (a gp_Ax1 object), the origin of which is situated on the "X Axis" of this parabola.)#"
)
.def("Focal",
(Standard_Real (gp_Parab::*)() const) static_cast<Standard_Real (gp_Parab::*)() const>(&gp_Parab::Focal),
R"#(Returns the distance between the vertex and the focus of the parabola.)#"
)
.def("Focus",
(gp_Pnt (gp_Parab::*)() const) static_cast<gp_Pnt (gp_Parab::*)() const>(&gp_Parab::Focus),
R"#(- Computes the focus of the parabola.)#"
)
.def("Parameter",
(Standard_Real (gp_Parab::*)() const) static_cast<Standard_Real (gp_Parab::*)() const>(&gp_Parab::Parameter),
R"#(Computes the parameter of the parabola. It is the distance between the focus and the directrix of the parabola. This distance is twice the focal length.)#"
)
.def("XAxis",
(gp_Ax1 (gp_Parab::*)() const) static_cast<gp_Ax1 (gp_Parab::*)() const>(&gp_Parab::XAxis),
R"#(Returns the symmetry axis of the parabola. The location point of the axis is the vertex of the parabola.)#"
)
.def("YAxis",
(gp_Ax1 (gp_Parab::*)() const) static_cast<gp_Ax1 (gp_Parab::*)() const>(&gp_Parab::YAxis),
R"#(It is an axis parallel to the directrix of the parabola. The location point of this axis is the vertex of the parabola.)#"
)
.def("Mirror",
(void (gp_Parab::*)( const gp_Pnt & ) ) static_cast<void (gp_Parab::*)( const gp_Pnt & ) >(&gp_Parab::Mirror),
R"#(None)#" , py::arg("theP")
)
.def("Mirrored",
(gp_Parab (gp_Parab::*)( const gp_Pnt & ) const) static_cast<gp_Parab (gp_Parab::*)( const gp_Pnt & ) const>(&gp_Parab::Mirrored),
R"#(Performs the symmetrical transformation of a parabola with respect to the point theP which is the center of the symmetry.)#" , py::arg("theP")
)
.def("Mirror",
(void (gp_Parab::*)( const gp_Ax1 & ) ) static_cast<void (gp_Parab::*)( const gp_Ax1 & ) >(&gp_Parab::Mirror),
R"#(None)#" , py::arg("theA1")
)
.def("Mirrored",
(gp_Parab (gp_Parab::*)( const gp_Ax1 & ) const) static_cast<gp_Parab (gp_Parab::*)( const gp_Ax1 & ) const>(&gp_Parab::Mirrored),
R"#(Performs the symmetrical transformation of a parabola with respect to an axis placement which is the axis of the symmetry.)#" , py::arg("theA1")
)
.def("Mirror",
(void (gp_Parab::*)( const gp_Ax2 & ) ) static_cast<void (gp_Parab::*)( const gp_Ax2 & ) >(&gp_Parab::Mirror),
R"#(None)#" , py::arg("theA2")
)
.def("Mirrored",
(gp_Parab (gp_Parab::*)( const gp_Ax2 & ) const) static_cast<gp_Parab (gp_Parab::*)( const gp_Ax2 & ) const>(&gp_Parab::Mirrored),
R"#(Performs the symmetrical transformation of a parabola with respect to a plane. The axis placement theA2 locates the plane of the symmetry (Location, XDirection, YDirection).)#" , py::arg("theA2")
)
.def("Rotate",
(void (gp_Parab::*)( const gp_Ax1 & , const Standard_Real ) ) static_cast<void (gp_Parab::*)( const gp_Ax1 & , const Standard_Real ) >(&gp_Parab::Rotate),
R"#(None)#" , py::arg("theA1"), py::arg("theAng")
)
.def("Rotated",
(gp_Parab (gp_Parab::*)( const gp_Ax1 & , const Standard_Real ) const) static_cast<gp_Parab (gp_Parab::*)( const gp_Ax1 & , const Standard_Real ) const>(&gp_Parab::Rotated),
R"#(Rotates a parabola. theA1 is the axis of the rotation. Ang is the angular value of the rotation in radians.)#" , py::arg("theA1"), py::arg("theAng")
)
.def("Scale",
(void (gp_Parab::*)( const gp_Pnt & , const Standard_Real ) ) static_cast<void (gp_Parab::*)( const gp_Pnt & , const Standard_Real ) >(&gp_Parab::Scale),
R"#(None)#" , py::arg("theP"), py::arg("theS")
)
.def("Scaled",
(gp_Parab (gp_Parab::*)( const gp_Pnt & , const Standard_Real ) const) static_cast<gp_Parab (gp_Parab::*)( const gp_Pnt & , const Standard_Real ) const>(&gp_Parab::Scaled),
R"#(Scales a parabola. theS is the scaling value. If theS is negative the direction of the symmetry axis XAxis is reversed and the direction of the YAxis too.)#" , py::arg("theP"), py::arg("theS")
)
.def("Transform",
(void (gp_Parab::*)( const gp_Trsf & ) ) static_cast<void (gp_Parab::*)( const gp_Trsf & ) >(&gp_Parab::Transform),
R"#(None)#" , py::arg("theT")
)
.def("Transformed",
(gp_Parab (gp_Parab::*)( const gp_Trsf & ) const) static_cast<gp_Parab (gp_Parab::*)( const gp_Trsf & ) const>(&gp_Parab::Transformed),
R"#(Transforms a parabola with the transformation theT from class Trsf.)#" , py::arg("theT")
)
.def("Translate",
(void (gp_Parab::*)( const gp_Vec & ) ) static_cast<void (gp_Parab::*)( const gp_Vec & ) >(&gp_Parab::Translate),
R"#(None)#" , py::arg("theV")
)
.def("Translated",
(gp_Parab (gp_Parab::*)( const gp_Vec & ) const) static_cast<gp_Parab (gp_Parab::*)( const gp_Vec & ) const>(&gp_Parab::Translated),
R"#(Translates a parabola in the direction of the vector theV. The magnitude of the translation is the vector's magnitude.)#" , py::arg("theV")
)
.def("Translate",
(void (gp_Parab::*)( const gp_Pnt & , const gp_Pnt & ) ) static_cast<void (gp_Parab::*)( const gp_Pnt & , const gp_Pnt & ) >(&gp_Parab::Translate),
R"#(None)#" , py::arg("theP1"), py::arg("theP2")
)
.def("Translated",
(gp_Parab (gp_Parab::*)( const gp_Pnt & , const gp_Pnt & ) const) static_cast<gp_Parab (gp_Parab::*)( const gp_Pnt & , const gp_Pnt & ) const>(&gp_Parab::Translated),
R"#(Translates a parabola from the point theP1 to the point theP2.)#" , py::arg("theP1"), py::arg("theP2")
)
.def("Directrix",
(gp_Ax1 (gp_Parab::*)() const) static_cast<gp_Ax1 (gp_Parab::*)() const>(&gp_Parab::Directrix),
R"#(Computes the directrix of this parabola. The directrix is: - a line parallel to the "Y Direction" of the local coordinate system of this parabola, and - located on the negative side of the axis of symmetry, at a distance from the apex which is equal to the focal length of this parabola. The directrix is returned as an axis (a gp_Ax1 object), the origin of which is situated on the "X Axis" of this parabola.)#"
)
.def("Focus",
(gp_Pnt (gp_Parab::*)() const) static_cast<gp_Pnt (gp_Parab::*)() const>(&gp_Parab::Focus),
R"#(- Computes the focus of the parabola.)#"
)
.def("Scale",
(void (gp_Parab::*)( const gp_Pnt & , const Standard_Real ) ) static_cast<void (gp_Parab::*)( const gp_Pnt & , const Standard_Real ) >(&gp_Parab::Scale),
R"#(None)#" , py::arg("theP"), py::arg("theS")
)
.def("Scaled",
(gp_Parab (gp_Parab::*)( const gp_Pnt & , const Standard_Real ) const) static_cast<gp_Parab (gp_Parab::*)( const gp_Pnt & , const Standard_Real ) const>(&gp_Parab::Scaled),
R"#(Scales a parabola. theS is the scaling value. If theS is negative the direction of the symmetry axis XAxis is reversed and the direction of the YAxis too.)#" , py::arg("theP"), py::arg("theS")
)
.def("Transform",
(void (gp_Parab::*)( const gp_Trsf & ) ) static_cast<void (gp_Parab::*)( const gp_Trsf & ) >(&gp_Parab::Transform),
R"#(None)#" , py::arg("theT")
)
.def("Transformed",
(gp_Parab (gp_Parab::*)( const gp_Trsf & ) const) static_cast<gp_Parab (gp_Parab::*)( const gp_Trsf & ) const>(&gp_Parab::Transformed),
R"#(Transforms a parabola with the transformation theT from class Trsf.)#" , py::arg("theT")
)
// methods using call by reference i.s.o. return
// static methods
// static methods using call by reference i.s.o. return
// operators
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
.def("Axis",
(const gp_Ax1 & (gp_Parab::*)() const) static_cast<const gp_Ax1 & (gp_Parab::*)() const>(&gp_Parab::Axis),
R"#(Returns the main axis of the parabola. It is the axis normal to the plane of the parabola passing through the vertex of the parabola.)#"
)
.def("Location",
(const gp_Pnt & (gp_Parab::*)() const) static_cast<const gp_Pnt & (gp_Parab::*)() const>(&gp_Parab::Location),
R"#(Returns the vertex of the parabola. It is the "Location" point of the coordinate system of the parabola.)#"
)
.def("Position",
(const gp_Ax2 & (gp_Parab::*)() const) static_cast<const gp_Ax2 & (gp_Parab::*)() const>(&gp_Parab::Position),
R"#(Returns the local coordinate system of the parabola.)#"
)
;
// Class gp_Parab2d from ./opencascade/gp_Parab2d.hxx
klass = m.attr("gp_Parab2d");
// nested enums
static_cast<py::class_<gp_Parab2d , shared_ptr<gp_Parab2d> >>(klass)
// constructors
.def(py::init< >() )
.def(py::init< const gp_Ax2d &,const Standard_Real,const Standard_Boolean >() , py::arg("theMirrorAxis"), py::arg("theFocalLength"), py::arg("theSense")=static_cast<const Standard_Boolean>(Standard_True) )
.def(py::init< const gp_Ax22d &,const Standard_Real >() , py::arg("theAxes"), py::arg("theFocalLength") )
.def(py::init< const gp_Ax2d &,const gp_Pnt2d &,const Standard_Boolean >() , py::arg("theDirectrix"), py::arg("theFocus"), py::arg("theSense")=static_cast<const Standard_Boolean>(Standard_True) )
// custom constructors
// methods
.def("SetFocal",
(void (gp_Parab2d::*)( const Standard_Real ) ) static_cast<void (gp_Parab2d::*)( const Standard_Real ) >(&gp_Parab2d::SetFocal),
R"#(Changes the focal distance of the parabola Warnings : It is possible to have theFocal = 0. Raises ConstructionError if theFocal < 0.0)#" , py::arg("theFocal")
)
.def("SetLocation",
(void (gp_Parab2d::*)( const gp_Pnt2d & ) ) static_cast<void (gp_Parab2d::*)( const gp_Pnt2d & ) >(&gp_Parab2d::SetLocation),
R"#(Changes the "Location" point of the parabola. It is the vertex of the parabola.)#" , py::arg("theP")
)
.def("SetMirrorAxis",
(void (gp_Parab2d::*)( const gp_Ax2d & ) ) static_cast<void (gp_Parab2d::*)( const gp_Ax2d & ) >(&gp_Parab2d::SetMirrorAxis),
R"#(Modifies this parabola, by redefining its local coordinate system so that its origin and "X Direction" become those of the axis MA. The "Y Direction" of the local coordinate system is then recomputed. The orientation of the local coordinate system is not modified.)#" , py::arg("theA")
)
.def("SetAxis",
(void (gp_Parab2d::*)( const gp_Ax22d & ) ) static_cast<void (gp_Parab2d::*)( const gp_Ax22d & ) >(&gp_Parab2d::SetAxis),
R"#(Changes the local coordinate system of the parabola. The "Location" point of A becomes the vertex of the parabola.)#" , py::arg("theA")
)
.def("Directrix",
(gp_Ax2d (gp_Parab2d::*)() const) static_cast<gp_Ax2d (gp_Parab2d::*)() const>(&gp_Parab2d::Directrix),
R"#(Computes the directrix of the parabola. The directrix is: - a line parallel to the "Y Direction" of the local coordinate system of this parabola, and - located on the negative side of the axis of symmetry, at a distance from the apex which is equal to the focal length of this parabola. The directrix is returned as an axis (a gp_Ax2d object), the origin of which is situated on the "X Axis" of this parabola.)#"
)
.def("Focal",
(Standard_Real (gp_Parab2d::*)() const) static_cast<Standard_Real (gp_Parab2d::*)() const>(&gp_Parab2d::Focal),
R"#(Returns the distance between the vertex and the focus of the parabola.)#"
)
.def("Focus",
(gp_Pnt2d (gp_Parab2d::*)() const) static_cast<gp_Pnt2d (gp_Parab2d::*)() const>(&gp_Parab2d::Focus),
R"#(Returns the focus of the parabola.)#"
)
.def("Location",
(gp_Pnt2d (gp_Parab2d::*)() const) static_cast<gp_Pnt2d (gp_Parab2d::*)() const>(&gp_Parab2d::Location),
R"#(Returns the vertex of the parabola.)#"
)
.def("MirrorAxis",
(gp_Ax2d (gp_Parab2d::*)() const) static_cast<gp_Ax2d (gp_Parab2d::*)() const>(&gp_Parab2d::MirrorAxis),
R"#(Returns the symmetry axis of the parabola. The "Location" point of this axis is the vertex of the parabola.)#"
)
.def("Axis",
(gp_Ax22d (gp_Parab2d::*)() const) static_cast<gp_Ax22d (gp_Parab2d::*)() const>(&gp_Parab2d::Axis),
R"#(Returns the local coordinate system of the parabola. The "Location" point of this axis is the vertex of the parabola.)#"
)
.def("Parameter",
(Standard_Real (gp_Parab2d::*)() const) static_cast<Standard_Real (gp_Parab2d::*)() const>(&gp_Parab2d::Parameter),
R"#(Returns the distance between the focus and the directrix of the parabola.)#"
)
.def("Reverse",
(void (gp_Parab2d::*)() ) static_cast<void (gp_Parab2d::*)() >(&gp_Parab2d::Reverse),
R"#(None)#"
)
.def("Reversed",
(gp_Parab2d (gp_Parab2d::*)() const) static_cast<gp_Parab2d (gp_Parab2d::*)() const>(&gp_Parab2d::Reversed),
R"#(Reverses the orientation of the local coordinate system of this parabola (the "Y Direction" is reversed). Therefore, the implicit orientation of this parabola is reversed. Note: - Reverse assigns the result to this parabola, while - Reversed creates a new one.)#"
)
.def("IsDirect",
(Standard_Boolean (gp_Parab2d::*)() const) static_cast<Standard_Boolean (gp_Parab2d::*)() const>(&gp_Parab2d::IsDirect),
R"#(Returns true if the local coordinate system is direct and false in the other case.)#"
)
.def("Mirror",
(void (gp_Parab2d::*)( const gp_Pnt2d & ) ) static_cast<void (gp_Parab2d::*)( const gp_Pnt2d & ) >(&gp_Parab2d::Mirror),
R"#(None)#" , py::arg("theP")
)
.def("Mirrored",
(gp_Parab2d (gp_Parab2d::*)( const gp_Pnt2d & ) const) static_cast<gp_Parab2d (gp_Parab2d::*)( const gp_Pnt2d & ) const>(&gp_Parab2d::Mirrored),
R"#(Performs the symmetrical transformation of a parabola with respect to the point theP which is the center of the symmetry)#" , py::arg("theP")
)
.def("Mirror",
(void (gp_Parab2d::*)( const gp_Ax2d & ) ) static_cast<void (gp_Parab2d::*)( const gp_Ax2d & ) >(&gp_Parab2d::Mirror),
R"#(None)#" , py::arg("theA")
)
.def("Mirrored",
(gp_Parab2d (gp_Parab2d::*)( const gp_Ax2d & ) const) static_cast<gp_Parab2d (gp_Parab2d::*)( const gp_Ax2d & ) const>(&gp_Parab2d::Mirrored),
R"#(Performs the symmetrical transformation of a parabola with respect to an axis placement which is the axis of the symmetry.)#" , py::arg("theA")
)
.def("Rotate",
(void (gp_Parab2d::*)( const gp_Pnt2d & , const Standard_Real ) ) static_cast<void (gp_Parab2d::*)( const gp_Pnt2d & , const Standard_Real ) >(&gp_Parab2d::Rotate),
R"#(None)#" , py::arg("theP"), py::arg("theAng")
)
.def("Rotated",
(gp_Parab2d (gp_Parab2d::*)( const gp_Pnt2d & , const Standard_Real ) const) static_cast<gp_Parab2d (gp_Parab2d::*)( const gp_Pnt2d & , const Standard_Real ) const>(&gp_Parab2d::Rotated),
R"#(Rotates a parabola. theP is the center of the rotation. theAng is the angular value of the rotation in radians.)#" , py::arg("theP"), py::arg("theAng")
)
.def("Scale",
(void (gp_Parab2d::*)( const gp_Pnt2d & , const Standard_Real ) ) static_cast<void (gp_Parab2d::*)( const gp_Pnt2d & , const Standard_Real ) >(&gp_Parab2d::Scale),
R"#(None)#" , py::arg("theP"), py::arg("theS")
)
.def("Scaled",
(gp_Parab2d (gp_Parab2d::*)( const gp_Pnt2d & , const Standard_Real ) const) static_cast<gp_Parab2d (gp_Parab2d::*)( const gp_Pnt2d & , const Standard_Real ) const>(&gp_Parab2d::Scaled),
R"#(Scales a parabola. theS is the scaling value. If theS is negative the direction of the symmetry axis "XAxis" is reversed and the direction of the "YAxis" too.)#" , py::arg("theP"), py::arg("theS")
)
.def("Transform",
(void (gp_Parab2d::*)( const gp_Trsf2d & ) ) static_cast<void (gp_Parab2d::*)( const gp_Trsf2d & ) >(&gp_Parab2d::Transform),
R"#(None)#" , py::arg("theT")
)
.def("Transformed",
(gp_Parab2d (gp_Parab2d::*)( const gp_Trsf2d & ) const) static_cast<gp_Parab2d (gp_Parab2d::*)( const gp_Trsf2d & ) const>(&gp_Parab2d::Transformed),
R"#(Transforms an parabola with the transformation theT from class Trsf2d.)#" , py::arg("theT")
)
.def("Translate",
(void (gp_Parab2d::*)( const gp_Vec2d & ) ) static_cast<void (gp_Parab2d::*)( const gp_Vec2d & ) >(&gp_Parab2d::Translate),
R"#(None)#" , py::arg("theV")
)
.def("Translated",
(gp_Parab2d (gp_Parab2d::*)( const gp_Vec2d & ) const) static_cast<gp_Parab2d (gp_Parab2d::*)( const gp_Vec2d & ) const>(&gp_Parab2d::Translated),
R"#(Translates a parabola in the direction of the vectorthe theV. The magnitude of the translation is the vector's magnitude.)#" , py::arg("theV")
)
.def("Translate",
(void (gp_Parab2d::*)( const gp_Pnt2d & , const gp_Pnt2d & ) ) static_cast<void (gp_Parab2d::*)( const gp_Pnt2d & , const gp_Pnt2d & ) >(&gp_Parab2d::Translate),
R"#(None)#" , py::arg("theP1"), py::arg("theP2")
)
.def("Translated",
(gp_Parab2d (gp_Parab2d::*)( const gp_Pnt2d & , const gp_Pnt2d & ) const) static_cast<gp_Parab2d (gp_Parab2d::*)( const gp_Pnt2d & , const gp_Pnt2d & ) const>(&gp_Parab2d::Translated),
R"#(Translates a parabola from the point theP1 to the point theP2.)#" , py::arg("theP1"), py::arg("theP2")
)
.def("Directrix",
(gp_Ax2d (gp_Parab2d::*)() const) static_cast<gp_Ax2d (gp_Parab2d::*)() const>(&gp_Parab2d::Directrix),
R"#(Computes the directrix of the parabola. The directrix is: - a line parallel to the "Y Direction" of the local coordinate system of this parabola, and - located on the negative side of the axis of symmetry, at a distance from the apex which is equal to the focal length of this parabola. The directrix is returned as an axis (a gp_Ax2d object), the origin of which is situated on the "X Axis" of this parabola.)#"
)
.def("Reversed",
(gp_Parab2d (gp_Parab2d::*)() const) static_cast<gp_Parab2d (gp_Parab2d::*)() const>(&gp_Parab2d::Reversed),
R"#(Reverses the orientation of the local coordinate system of this parabola (the "Y Direction" is reversed). Therefore, the implicit orientation of this parabola is reversed. Note: - Reverse assigns the result to this parabola, while - Reversed creates a new one.)#"
)
.def("Scale",
(void (gp_Parab2d::*)( const gp_Pnt2d & , const Standard_Real ) ) static_cast<void (gp_Parab2d::*)( const gp_Pnt2d & , const Standard_Real ) >(&gp_Parab2d::Scale),
R"#(None)#" , py::arg("theP"), py::arg("theS")
)
.def("Scaled",
(gp_Parab2d (gp_Parab2d::*)( const gp_Pnt2d & , const Standard_Real ) const) static_cast<gp_Parab2d (gp_Parab2d::*)( const gp_Pnt2d & , const Standard_Real ) const>(&gp_Parab2d::Scaled),
R"#(Scales a parabola. theS is the scaling value. If theS is negative the direction of the symmetry axis "XAxis" is reversed and the direction of the "YAxis" too.)#" , py::arg("theP"), py::arg("theS")
)
.def("Transform",
(void (gp_Parab2d::*)( const gp_Trsf2d & ) ) static_cast<void (gp_Parab2d::*)( const gp_Trsf2d & ) >(&gp_Parab2d::Transform),
R"#(None)#" , py::arg("theT")
)
.def("Transformed",
(gp_Parab2d (gp_Parab2d::*)( const gp_Trsf2d & ) const) static_cast<gp_Parab2d (gp_Parab2d::*)( const gp_Trsf2d & ) const>(&gp_Parab2d::Transformed),
R"#(Transforms an parabola with the transformation theT from class Trsf2d.)#" , py::arg("theT")
)
// methods using call by reference i.s.o. return
.def("Coefficients",
[]( gp_Parab2d &self ){
Standard_Real theA;
Standard_Real theB;
Standard_Real theC;
Standard_Real theD;
Standard_Real theE;
Standard_Real theF;
self.Coefficients(theA,theB,theC,theD,theE,theF);
return std::make_tuple(theA,theB,theC,theD,theE,theF); },
R"#(Computes the coefficients of the implicit equation of the parabola (in WCS - World Coordinate System).)#"
)
// static methods
// static methods using call by reference i.s.o. return
// operators
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
;
// Class gp_Pln from ./opencascade/gp_Pln.hxx
klass = m.attr("gp_Pln");
// nested enums
static_cast<py::class_<gp_Pln , shared_ptr<gp_Pln> >>(klass)
// constructors
.def(py::init< >() )
.def(py::init< const gp_Ax3 & >() , py::arg("theA3") )
.def(py::init< const gp_Pnt &,const gp_Dir & >() , py::arg("theP"), py::arg("theV") )
.def(py::init< const Standard_Real,const Standard_Real,const Standard_Real,const Standard_Real >() , py::arg("theA"), py::arg("theB"), py::arg("theC"), py::arg("theD") )
// custom constructors
// methods
.def("SetAxis",
(void (gp_Pln::*)( const gp_Ax1 & ) ) static_cast<void (gp_Pln::*)( const gp_Ax1 & ) >(&gp_Pln::SetAxis),
R"#(Modifies this plane, by redefining its local coordinate system so that - its origin and "main Direction" become those of the axis theA1 (the "X Direction" and "Y Direction" are then recomputed). Raises ConstructionError if the theA1 is parallel to the "XAxis" of the plane.)#" , py::arg("theA1")
)
.def("SetLocation",
(void (gp_Pln::*)( const gp_Pnt & ) ) static_cast<void (gp_Pln::*)( const gp_Pnt & ) >(&gp_Pln::SetLocation),
R"#(Changes the origin of the plane.)#" , py::arg("theLoc")
)
.def("SetPosition",
(void (gp_Pln::*)( const gp_Ax3 & ) ) static_cast<void (gp_Pln::*)( const gp_Ax3 & ) >(&gp_Pln::SetPosition),
R"#(Changes the local coordinate system of the plane.)#" , py::arg("theA3")
)
.def("UReverse",
(void (gp_Pln::*)() ) static_cast<void (gp_Pln::*)() >(&gp_Pln::UReverse),
R"#(Reverses the U parametrization of the plane reversing the XAxis.)#"
)
.def("VReverse",
(void (gp_Pln::*)() ) static_cast<void (gp_Pln::*)() >(&gp_Pln::VReverse),
R"#(Reverses the V parametrization of the plane reversing the YAxis.)#"
)
.def("Direct",
(Standard_Boolean (gp_Pln::*)() const) static_cast<Standard_Boolean (gp_Pln::*)() const>(&gp_Pln::Direct),
R"#(returns true if the Ax3 is right handed.)#"
)
.def("Distance",
(Standard_Real (gp_Pln::*)( const gp_Pnt & ) const) static_cast<Standard_Real (gp_Pln::*)( const gp_Pnt & ) const>(&gp_Pln::Distance),
R"#(Computes the distance between <me> and the point <theP>.)#" , py::arg("theP")
)
.def("Distance",
(Standard_Real (gp_Pln::*)( const gp_Lin & ) const) static_cast<Standard_Real (gp_Pln::*)( const gp_Lin & ) const>(&gp_Pln::Distance),
R"#(Computes the distance between <me> and the line <theL>.)#" , py::arg("theL")
)
.def("Distance",
(Standard_Real (gp_Pln::*)( const gp_Pln & ) const) static_cast<Standard_Real (gp_Pln::*)( const gp_Pln & ) const>(&gp_Pln::Distance),
R"#(Computes the distance between two planes.)#" , py::arg("theOther")
)
.def("SquareDistance",
(Standard_Real (gp_Pln::*)( const gp_Pnt & ) const) static_cast<Standard_Real (gp_Pln::*)( const gp_Pnt & ) const>(&gp_Pln::SquareDistance),
R"#(Computes the square distance between <me> and the point <theP>.)#" , py::arg("theP")
)
.def("SquareDistance",
(Standard_Real (gp_Pln::*)( const gp_Lin & ) const) static_cast<Standard_Real (gp_Pln::*)( const gp_Lin & ) const>(&gp_Pln::SquareDistance),
R"#(Computes the square distance between <me> and the line <theL>.)#" , py::arg("theL")
)
.def("SquareDistance",
(Standard_Real (gp_Pln::*)( const gp_Pln & ) const) static_cast<Standard_Real (gp_Pln::*)( const gp_Pln & ) const>(&gp_Pln::SquareDistance),
R"#(Computes the square distance between two planes.)#" , py::arg("theOther")
)
.def("XAxis",
(gp_Ax1 (gp_Pln::*)() const) static_cast<gp_Ax1 (gp_Pln::*)() const>(&gp_Pln::XAxis),
R"#(Returns the X axis of the plane.)#"
)
.def("YAxis",
(gp_Ax1 (gp_Pln::*)() const) static_cast<gp_Ax1 (gp_Pln::*)() const>(&gp_Pln::YAxis),
R"#(Returns the Y axis of the plane.)#"
)
.def("Contains",
(Standard_Boolean (gp_Pln::*)( const gp_Pnt & , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Pln::*)( const gp_Pnt & , const Standard_Real ) const>(&gp_Pln::Contains),
R"#(Returns true if this plane contains the point theP. This means that - the distance between point theP and this plane is less than or equal to theLinearTolerance, or - line L is normal to the "main Axis" of the local coordinate system of this plane, within the tolerance AngularTolerance, and the distance between the origin of line L and this plane is less than or equal to theLinearTolerance.)#" , py::arg("theP"), py::arg("theLinearTolerance")
)
.def("Contains",
(Standard_Boolean (gp_Pln::*)( const gp_Lin & , const Standard_Real , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Pln::*)( const gp_Lin & , const Standard_Real , const Standard_Real ) const>(&gp_Pln::Contains),
R"#(Returns true if this plane contains the line theL. This means that - the distance between point P and this plane is less than or equal to LinearTolerance, or - line theL is normal to the "main Axis" of the local coordinate system of this plane, within the tolerance theAngularTolerance, and the distance between the origin of line theL and this plane is less than or equal to theLinearTolerance.)#" , py::arg("theL"), py::arg("theLinearTolerance"), py::arg("theAngularTolerance")
)
.def("Mirror",
(void (gp_Pln::*)( const gp_Pnt & ) ) static_cast<void (gp_Pln::*)( const gp_Pnt & ) >(&gp_Pln::Mirror),
R"#(None)#" , py::arg("theP")
)
.def("Mirrored",
(gp_Pln (gp_Pln::*)( const gp_Pnt & ) const) static_cast<gp_Pln (gp_Pln::*)( const gp_Pnt & ) const>(&gp_Pln::Mirrored),
R"#(Performs the symmetrical transformation of a plane with respect to the point <theP> which is the center of the symmetry Warnings : The normal direction to the plane is not changed. The "XAxis" and the "YAxis" are reversed.)#" , py::arg("theP")
)
.def("Mirror",
(void (gp_Pln::*)( const gp_Ax1 & ) ) static_cast<void (gp_Pln::*)( const gp_Ax1 & ) >(&gp_Pln::Mirror),
R"#(None)#" , py::arg("theA1")
)
.def("Mirrored",
(gp_Pln (gp_Pln::*)( const gp_Ax1 & ) const) static_cast<gp_Pln (gp_Pln::*)( const gp_Ax1 & ) const>(&gp_Pln::Mirrored),
R"#(Performs the symmetrical transformation of a plane with respect to an axis placement which is the axis of the symmetry. The transformation is performed on the "Location" point, on the "XAxis" and the "YAxis". The resulting normal direction is the cross product between the "XDirection" and the "YDirection" after transformation if the initial plane was right handed, else it is the opposite.)#" , py::arg("theA1")
)
.def("Mirror",
(void (gp_Pln::*)( const gp_Ax2 & ) ) static_cast<void (gp_Pln::*)( const gp_Ax2 & ) >(&gp_Pln::Mirror),
R"#(None)#" , py::arg("theA2")
)
.def("Mirrored",
(gp_Pln (gp_Pln::*)( const gp_Ax2 & ) const) static_cast<gp_Pln (gp_Pln::*)( const gp_Ax2 & ) const>(&gp_Pln::Mirrored),
R"#(Performs the symmetrical transformation of a plane with respect to an axis placement. The axis placement <A2> locates the plane of the symmetry. The transformation is performed on the "Location" point, on the "XAxis" and the "YAxis". The resulting normal direction is the cross product between the "XDirection" and the "YDirection" after transformation if the initial plane was right handed, else it is the opposite.)#" , py::arg("theA2")
)
.def("Rotate",
(void (gp_Pln::*)( const gp_Ax1 & , const Standard_Real ) ) static_cast<void (gp_Pln::*)( const gp_Ax1 & , const Standard_Real ) >(&gp_Pln::Rotate),
R"#(None)#" , py::arg("theA1"), py::arg("theAng")
)
.def("Rotated",
(gp_Pln (gp_Pln::*)( const gp_Ax1 & , const Standard_Real ) const) static_cast<gp_Pln (gp_Pln::*)( const gp_Ax1 & , const Standard_Real ) const>(&gp_Pln::Rotated),
R"#(rotates a plane. theA1 is the axis of the rotation. theAng is the angular value of the rotation in radians.)#" , py::arg("theA1"), py::arg("theAng")
)
.def("Scale",
(void (gp_Pln::*)( const gp_Pnt & , const Standard_Real ) ) static_cast<void (gp_Pln::*)( const gp_Pnt & , const Standard_Real ) >(&gp_Pln::Scale),
R"#(None)#" , py::arg("theP"), py::arg("theS")
)
.def("Scaled",
(gp_Pln (gp_Pln::*)( const gp_Pnt & , const Standard_Real ) const) static_cast<gp_Pln (gp_Pln::*)( const gp_Pnt & , const Standard_Real ) const>(&gp_Pln::Scaled),
R"#(Scales a plane. theS is the scaling value.)#" , py::arg("theP"), py::arg("theS")
)
.def("Transform",
(void (gp_Pln::*)( const gp_Trsf & ) ) static_cast<void (gp_Pln::*)( const gp_Trsf & ) >(&gp_Pln::Transform),
R"#(None)#" , py::arg("theT")
)
.def("Transformed",
(gp_Pln (gp_Pln::*)( const gp_Trsf & ) const) static_cast<gp_Pln (gp_Pln::*)( const gp_Trsf & ) const>(&gp_Pln::Transformed),
R"#(Transforms a plane with the transformation theT from class Trsf. The transformation is performed on the "Location" point, on the "XAxis" and the "YAxis". The resulting normal direction is the cross product between the "XDirection" and the "YDirection" after transformation.)#" , py::arg("theT")
)
.def("Translate",
(void (gp_Pln::*)( const gp_Vec & ) ) static_cast<void (gp_Pln::*)( const gp_Vec & ) >(&gp_Pln::Translate),
R"#(None)#" , py::arg("theV")
)
.def("Translated",
(gp_Pln (gp_Pln::*)( const gp_Vec & ) const) static_cast<gp_Pln (gp_Pln::*)( const gp_Vec & ) const>(&gp_Pln::Translated),
R"#(Translates a plane in the direction of the vector theV. The magnitude of the translation is the vector's magnitude.)#" , py::arg("theV")
)
.def("Translate",
(void (gp_Pln::*)( const gp_Pnt & , const gp_Pnt & ) ) static_cast<void (gp_Pln::*)( const gp_Pnt & , const gp_Pnt & ) >(&gp_Pln::Translate),
R"#(None)#" , py::arg("theP1"), py::arg("theP2")
)
.def("Translated",
(gp_Pln (gp_Pln::*)( const gp_Pnt & , const gp_Pnt & ) const) static_cast<gp_Pln (gp_Pln::*)( const gp_Pnt & , const gp_Pnt & ) const>(&gp_Pln::Translated),
R"#(Translates a plane from the point theP1 to the point theP2.)#" , py::arg("theP1"), py::arg("theP2")
)
.def("DumpJson",
(void (gp_Pln::*)( std::ostream & , Standard_Integer ) const) static_cast<void (gp_Pln::*)( std::ostream & , Standard_Integer ) const>(&gp_Pln::DumpJson),
R"#(Dumps the content of me into the stream)#" , py::arg("theOStream"), py::arg("theDepth")=static_cast<Standard_Integer>(- 1)
)
.def("Distance",
(Standard_Real (gp_Pln::*)( const gp_Pnt & ) const) static_cast<Standard_Real (gp_Pln::*)( const gp_Pnt & ) const>(&gp_Pln::Distance),
R"#(Computes the distance between <me> and the point <theP>.)#" , py::arg("theP")
)
.def("Distance",
(Standard_Real (gp_Pln::*)( const gp_Lin & ) const) static_cast<Standard_Real (gp_Pln::*)( const gp_Lin & ) const>(&gp_Pln::Distance),
R"#(Computes the distance between <me> and the line <theL>.)#" , py::arg("theL")
)
.def("Distance",
(Standard_Real (gp_Pln::*)( const gp_Pln & ) const) static_cast<Standard_Real (gp_Pln::*)( const gp_Pln & ) const>(&gp_Pln::Distance),
R"#(Computes the distance between two planes.)#" , py::arg("theOther")
)
// methods using call by reference i.s.o. return
.def("Coefficients",
[]( gp_Pln &self ){
Standard_Real theA;
Standard_Real theB;
Standard_Real theC;
Standard_Real theD;
self.Coefficients(theA,theB,theC,theD);
return std::make_tuple(theA,theB,theC,theD); },
R"#(Returns the coefficients of the plane's cartesian equation :)#"
)
.def("Coefficients",
[]( gp_Pln &self ){
Standard_Real theA;
Standard_Real theB;
Standard_Real theC;
Standard_Real theD;
self.Coefficients(theA,theB,theC,theD);
return std::make_tuple(theA,theB,theC,theD); },
R"#(Returns the coefficients of the plane's cartesian equation :)#"
)
// static methods
// static methods using call by reference i.s.o. return
// operators
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
.def("Axis",
(const gp_Ax1 & (gp_Pln::*)() const) static_cast<const gp_Ax1 & (gp_Pln::*)() const>(&gp_Pln::Axis),
R"#(Returns the plane's normal Axis.)#"
)
.def("Location",
(const gp_Pnt & (gp_Pln::*)() const) static_cast<const gp_Pnt & (gp_Pln::*)() const>(&gp_Pln::Location),
R"#(Returns the plane's location (origin).)#"
)
.def("Position",
(const gp_Ax3 & (gp_Pln::*)() const) static_cast<const gp_Ax3 & (gp_Pln::*)() const>(&gp_Pln::Position),
R"#(Returns the local coordinate system of the plane .)#"
)
;
// Class gp_Pnt from ./opencascade/gp_Pnt.hxx
klass = m.attr("gp_Pnt");
// nested enums
static_cast<py::class_<gp_Pnt , shared_ptr<gp_Pnt> >>(klass)
// constructors
.def(py::init< >() )
.def(py::init< const gp_XYZ & >() , py::arg("theCoord") )
.def(py::init< const Standard_Real,const Standard_Real,const Standard_Real >() , py::arg("theXp"), py::arg("theYp"), py::arg("theZp") )
// custom constructors
// methods
.def("SetCoord",
(void (gp_Pnt::*)( const Standard_Integer , const Standard_Real ) ) static_cast<void (gp_Pnt::*)( const Standard_Integer , const Standard_Real ) >(&gp_Pnt::SetCoord),
R"#(Changes the coordinate of range theIndex : theIndex = 1 => X is modified theIndex = 2 => Y is modified theIndex = 3 => Z is modified Raised if theIndex != {1, 2, 3}.)#" , py::arg("theIndex"), py::arg("theXi")
)
.def("SetCoord",
(void (gp_Pnt::*)( const Standard_Real , const Standard_Real , const Standard_Real ) ) static_cast<void (gp_Pnt::*)( const Standard_Real , const Standard_Real , const Standard_Real ) >(&gp_Pnt::SetCoord),
R"#(For this point, assigns the values theXp, theYp and theZp to its three coordinates.)#" , py::arg("theXp"), py::arg("theYp"), py::arg("theZp")
)
.def("SetX",
(void (gp_Pnt::*)( const Standard_Real ) ) static_cast<void (gp_Pnt::*)( const Standard_Real ) >(&gp_Pnt::SetX),
R"#(Assigns the given value to the X coordinate of this point.)#" , py::arg("theX")
)
.def("SetY",
(void (gp_Pnt::*)( const Standard_Real ) ) static_cast<void (gp_Pnt::*)( const Standard_Real ) >(&gp_Pnt::SetY),
R"#(Assigns the given value to the Y coordinate of this point.)#" , py::arg("theY")
)
.def("SetZ",
(void (gp_Pnt::*)( const Standard_Real ) ) static_cast<void (gp_Pnt::*)( const Standard_Real ) >(&gp_Pnt::SetZ),
R"#(Assigns the given value to the Z coordinate of this point.)#" , py::arg("theZ")
)
.def("SetXYZ",
(void (gp_Pnt::*)( const gp_XYZ & ) ) static_cast<void (gp_Pnt::*)( const gp_XYZ & ) >(&gp_Pnt::SetXYZ),
R"#(Assigns the three coordinates of theCoord to this point.)#" , py::arg("theCoord")
)
.def("Coord",
(Standard_Real (gp_Pnt::*)( const Standard_Integer ) const) static_cast<Standard_Real (gp_Pnt::*)( const Standard_Integer ) const>(&gp_Pnt::Coord),
R"#(Returns the coordinate of corresponding to the value of theIndex : theIndex = 1 => X is returned theIndex = 2 => Y is returned theIndex = 3 => Z is returned Raises OutOfRange if theIndex != {1, 2, 3}. Raised if theIndex != {1, 2, 3}.)#" , py::arg("theIndex")
)
.def("X",
(Standard_Real (gp_Pnt::*)() const) static_cast<Standard_Real (gp_Pnt::*)() const>(&gp_Pnt::X),
R"#(For this point, returns its X coordinate.)#"
)
.def("Y",
(Standard_Real (gp_Pnt::*)() const) static_cast<Standard_Real (gp_Pnt::*)() const>(&gp_Pnt::Y),
R"#(For this point, returns its Y coordinate.)#"
)
.def("Z",
(Standard_Real (gp_Pnt::*)() const) static_cast<Standard_Real (gp_Pnt::*)() const>(&gp_Pnt::Z),
R"#(For this point, returns its Z coordinate.)#"
)
.def("BaryCenter",
(void (gp_Pnt::*)( const Standard_Real , const gp_Pnt & , const Standard_Real ) ) static_cast<void (gp_Pnt::*)( const Standard_Real , const gp_Pnt & , const Standard_Real ) >(&gp_Pnt::BaryCenter),
R"#(Assigns the result of the following expression to this point (theAlpha*this + theBeta*theP) / (theAlpha + theBeta))#" , py::arg("theAlpha"), py::arg("theP"), py::arg("theBeta")
)
.def("IsEqual",
(Standard_Boolean (gp_Pnt::*)( const gp_Pnt & , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Pnt::*)( const gp_Pnt & , const Standard_Real ) const>(&gp_Pnt::IsEqual),
R"#(Comparison Returns True if the distance between the two points is lower or equal to theLinearTolerance.)#" , py::arg("theOther"), py::arg("theLinearTolerance")
)
.def("Distance",
(Standard_Real (gp_Pnt::*)( const gp_Pnt & ) const) static_cast<Standard_Real (gp_Pnt::*)( const gp_Pnt & ) const>(&gp_Pnt::Distance),
R"#(Computes the distance between two points.)#" , py::arg("theOther")
)
.def("SquareDistance",
(Standard_Real (gp_Pnt::*)( const gp_Pnt & ) const) static_cast<Standard_Real (gp_Pnt::*)( const gp_Pnt & ) const>(&gp_Pnt::SquareDistance),
R"#(Computes the square distance between two points.)#" , py::arg("theOther")
)
.def("Mirror",
(void (gp_Pnt::*)( const gp_Pnt & ) ) static_cast<void (gp_Pnt::*)( const gp_Pnt & ) >(&gp_Pnt::Mirror),
R"#(Performs the symmetrical transformation of a point with respect to the point theP which is the center of the symmetry.)#" , py::arg("theP")
)
.def("Mirrored",
(gp_Pnt (gp_Pnt::*)( const gp_Pnt & ) const) static_cast<gp_Pnt (gp_Pnt::*)( const gp_Pnt & ) const>(&gp_Pnt::Mirrored),
R"#(Performs the symmetrical transformation of a point with respect to an axis placement which is the axis of the symmetry.)#" , py::arg("theP")
)
.def("Mirror",
(void (gp_Pnt::*)( const gp_Ax1 & ) ) static_cast<void (gp_Pnt::*)( const gp_Ax1 & ) >(&gp_Pnt::Mirror),
R"#(None)#" , py::arg("theA1")
)
.def("Mirrored",
(gp_Pnt (gp_Pnt::*)( const gp_Ax1 & ) const) static_cast<gp_Pnt (gp_Pnt::*)( const gp_Ax1 & ) const>(&gp_Pnt::Mirrored),
R"#(Performs the symmetrical transformation of a point with respect to a plane. The axis placement theA2 locates the plane of the symmetry : (Location, XDirection, YDirection).)#" , py::arg("theA1")
)
.def("Mirror",
(void (gp_Pnt::*)( const gp_Ax2 & ) ) static_cast<void (gp_Pnt::*)( const gp_Ax2 & ) >(&gp_Pnt::Mirror),
R"#(None)#" , py::arg("theA2")
)
.def("Mirrored",
(gp_Pnt (gp_Pnt::*)( const gp_Ax2 & ) const) static_cast<gp_Pnt (gp_Pnt::*)( const gp_Ax2 & ) const>(&gp_Pnt::Mirrored),
R"#(Rotates a point. theA1 is the axis of the rotation. theAng is the angular value of the rotation in radians.)#" , py::arg("theA2")
)
.def("Rotate",
(void (gp_Pnt::*)( const gp_Ax1 & , const Standard_Real ) ) static_cast<void (gp_Pnt::*)( const gp_Ax1 & , const Standard_Real ) >(&gp_Pnt::Rotate),
R"#(None)#" , py::arg("theA1"), py::arg("theAng")
)
.def("Rotated",
(gp_Pnt (gp_Pnt::*)( const gp_Ax1 & , const Standard_Real ) const) static_cast<gp_Pnt (gp_Pnt::*)( const gp_Ax1 & , const Standard_Real ) const>(&gp_Pnt::Rotated),
R"#(None)#" , py::arg("theA1"), py::arg("theAng")
)
.def("Scale",
(void (gp_Pnt::*)( const gp_Pnt & , const Standard_Real ) ) static_cast<void (gp_Pnt::*)( const gp_Pnt & , const Standard_Real ) >(&gp_Pnt::Scale),
R"#(Scales a point. theS is the scaling value.)#" , py::arg("theP"), py::arg("theS")
)
.def("Scaled",
(gp_Pnt (gp_Pnt::*)( const gp_Pnt & , const Standard_Real ) const) static_cast<gp_Pnt (gp_Pnt::*)( const gp_Pnt & , const Standard_Real ) const>(&gp_Pnt::Scaled),
R"#(None)#" , py::arg("theP"), py::arg("theS")
)
.def("Transform",
(void (gp_Pnt::*)( const gp_Trsf & ) ) static_cast<void (gp_Pnt::*)( const gp_Trsf & ) >(&gp_Pnt::Transform),
R"#(Transforms a point with the transformation T.)#" , py::arg("theT")
)
.def("Transformed",
(gp_Pnt (gp_Pnt::*)( const gp_Trsf & ) const) static_cast<gp_Pnt (gp_Pnt::*)( const gp_Trsf & ) const>(&gp_Pnt::Transformed),
R"#(None)#" , py::arg("theT")
)
.def("Translate",
(void (gp_Pnt::*)( const gp_Vec & ) ) static_cast<void (gp_Pnt::*)( const gp_Vec & ) >(&gp_Pnt::Translate),
R"#(Translates a point in the direction of the vector theV. The magnitude of the translation is the vector's magnitude.)#" , py::arg("theV")
)
.def("Translated",
(gp_Pnt (gp_Pnt::*)( const gp_Vec & ) const) static_cast<gp_Pnt (gp_Pnt::*)( const gp_Vec & ) const>(&gp_Pnt::Translated),
R"#(None)#" , py::arg("theV")
)
.def("Translate",
(void (gp_Pnt::*)( const gp_Pnt & , const gp_Pnt & ) ) static_cast<void (gp_Pnt::*)( const gp_Pnt & , const gp_Pnt & ) >(&gp_Pnt::Translate),
R"#(Translates a point from the point theP1 to the point theP2.)#" , py::arg("theP1"), py::arg("theP2")
)
.def("Translated",
(gp_Pnt (gp_Pnt::*)( const gp_Pnt & , const gp_Pnt & ) const) static_cast<gp_Pnt (gp_Pnt::*)( const gp_Pnt & , const gp_Pnt & ) const>(&gp_Pnt::Translated),
R"#(None)#" , py::arg("theP1"), py::arg("theP2")
)
.def("DumpJson",
(void (gp_Pnt::*)( std::ostream & , Standard_Integer ) const) static_cast<void (gp_Pnt::*)( std::ostream & , Standard_Integer ) const>(&gp_Pnt::DumpJson),
R"#(Dumps the content of me into the stream)#" , py::arg("theOStream"), py::arg("theDepth")=static_cast<Standard_Integer>(- 1)
)
.def("InitFromJson",
(Standard_Boolean (gp_Pnt::*)( const std::stringstream & , Standard_Integer & ) ) static_cast<Standard_Boolean (gp_Pnt::*)( const std::stringstream & , Standard_Integer & ) >(&gp_Pnt::InitFromJson),
R"#(Inits the content of me from the stream)#" , py::arg("theSStream"), py::arg("theStreamPos")
)
.def("Distance",
(Standard_Real (gp_Pnt::*)( const gp_Pnt & ) const) static_cast<Standard_Real (gp_Pnt::*)( const gp_Pnt & ) const>(&gp_Pnt::Distance),
R"#(Computes the distance between two points.)#" , py::arg("theOther")
)
.def("SquareDistance",
(Standard_Real (gp_Pnt::*)( const gp_Pnt & ) const) static_cast<Standard_Real (gp_Pnt::*)( const gp_Pnt & ) const>(&gp_Pnt::SquareDistance),
R"#(Computes the square distance between two points.)#" , py::arg("theOther")
)
.def("Rotate",
(void (gp_Pnt::*)( const gp_Ax1 & , const Standard_Real ) ) static_cast<void (gp_Pnt::*)( const gp_Ax1 & , const Standard_Real ) >(&gp_Pnt::Rotate),
R"#(None)#" , py::arg("theA1"), py::arg("theAng")
)
.def("Scale",
(void (gp_Pnt::*)( const gp_Pnt & , const Standard_Real ) ) static_cast<void (gp_Pnt::*)( const gp_Pnt & , const Standard_Real ) >(&gp_Pnt::Scale),
R"#(Scales a point. theS is the scaling value.)#" , py::arg("theP"), py::arg("theS")
)
.def("Translate",
(void (gp_Pnt::*)( const gp_Vec & ) ) static_cast<void (gp_Pnt::*)( const gp_Vec & ) >(&gp_Pnt::Translate),
R"#(Translates a point in the direction of the vector theV. The magnitude of the translation is the vector's magnitude.)#" , py::arg("theV")
)
.def("Translated",
(gp_Pnt (gp_Pnt::*)( const gp_Vec & ) const) static_cast<gp_Pnt (gp_Pnt::*)( const gp_Vec & ) const>(&gp_Pnt::Translated),
R"#(None)#" , py::arg("theV")
)
// methods using call by reference i.s.o. return
.def("Coord",
[]( gp_Pnt &self ){
Standard_Real theXp;
Standard_Real theYp;
Standard_Real theZp;
self.Coord(theXp,theYp,theZp);
return std::make_tuple(theXp,theYp,theZp); },
R"#(For this point gives its three coordinates theXp, theYp and theZp.)#"
)
// static methods
// static methods using call by reference i.s.o. return
// operators
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
.def("XYZ",
(const gp_XYZ & (gp_Pnt::*)() const) static_cast<const gp_XYZ & (gp_Pnt::*)() const>(&gp_Pnt::XYZ),
R"#(For this point, returns its three coordinates as a XYZ object.)#"
)
.def("Coord",
(const gp_XYZ & (gp_Pnt::*)() const) static_cast<const gp_XYZ & (gp_Pnt::*)() const>(&gp_Pnt::Coord),
R"#(For this point, returns its three coordinates as a XYZ object.)#"
)
.def("ChangeCoord",
(gp_XYZ & (gp_Pnt::*)() ) static_cast<gp_XYZ & (gp_Pnt::*)() >(&gp_Pnt::ChangeCoord),
R"#(Returns the coordinates of this point. Note: This syntax allows direct modification of the returned value.)#"
, py::return_value_policy::reference_internal
)
;
// Class gp_Pnt2d from ./opencascade/gp_Pnt2d.hxx
klass = m.attr("gp_Pnt2d");
// nested enums
static_cast<py::class_<gp_Pnt2d , shared_ptr<gp_Pnt2d> >>(klass)
// constructors
.def(py::init< >() )
.def(py::init< const gp_XY & >() , py::arg("theCoord") )
.def(py::init< const Standard_Real,const Standard_Real >() , py::arg("theXp"), py::arg("theYp") )
// custom constructors
// methods
.def("SetCoord",
(void (gp_Pnt2d::*)( const Standard_Integer , const Standard_Real ) ) static_cast<void (gp_Pnt2d::*)( const Standard_Integer , const Standard_Real ) >(&gp_Pnt2d::SetCoord),
R"#(Assigns the value Xi to the coordinate that corresponds to theIndex: theIndex = 1 => X is modified theIndex = 2 => Y is modified Raises OutOfRange if theIndex != {1, 2}.)#" , py::arg("theIndex"), py::arg("theXi")
)
.def("SetCoord",
(void (gp_Pnt2d::*)( const Standard_Real , const Standard_Real ) ) static_cast<void (gp_Pnt2d::*)( const Standard_Real , const Standard_Real ) >(&gp_Pnt2d::SetCoord),
R"#(For this point, assigns the values theXp and theYp to its two coordinates)#" , py::arg("theXp"), py::arg("theYp")
)
.def("SetX",
(void (gp_Pnt2d::*)( const Standard_Real ) ) static_cast<void (gp_Pnt2d::*)( const Standard_Real ) >(&gp_Pnt2d::SetX),
R"#(Assigns the given value to the X coordinate of this point.)#" , py::arg("theX")
)
.def("SetY",
(void (gp_Pnt2d::*)( const Standard_Real ) ) static_cast<void (gp_Pnt2d::*)( const Standard_Real ) >(&gp_Pnt2d::SetY),
R"#(Assigns the given value to the Y coordinate of this point.)#" , py::arg("theY")
)
.def("SetXY",
(void (gp_Pnt2d::*)( const gp_XY & ) ) static_cast<void (gp_Pnt2d::*)( const gp_XY & ) >(&gp_Pnt2d::SetXY),
R"#(Assigns the two coordinates of Coord to this point.)#" , py::arg("theCoord")
)
.def("Coord",
(Standard_Real (gp_Pnt2d::*)( const Standard_Integer ) const) static_cast<Standard_Real (gp_Pnt2d::*)( const Standard_Integer ) const>(&gp_Pnt2d::Coord),
R"#(Returns the coordinate of range theIndex : theIndex = 1 => X is returned theIndex = 2 => Y is returned Raises OutOfRange if theIndex != {1, 2}.)#" , py::arg("theIndex")
)
.def("X",
(Standard_Real (gp_Pnt2d::*)() const) static_cast<Standard_Real (gp_Pnt2d::*)() const>(&gp_Pnt2d::X),
R"#(For this point, returns its X coordinate.)#"
)
.def("Y",
(Standard_Real (gp_Pnt2d::*)() const) static_cast<Standard_Real (gp_Pnt2d::*)() const>(&gp_Pnt2d::Y),
R"#(For this point, returns its Y coordinate.)#"
)
.def("IsEqual",
(Standard_Boolean (gp_Pnt2d::*)( const gp_Pnt2d & , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Pnt2d::*)( const gp_Pnt2d & , const Standard_Real ) const>(&gp_Pnt2d::IsEqual),
R"#(Comparison Returns True if the distance between the two points is lower or equal to theLinearTolerance.)#" , py::arg("theOther"), py::arg("theLinearTolerance")
)
.def("Distance",
(Standard_Real (gp_Pnt2d::*)( const gp_Pnt2d & ) const) static_cast<Standard_Real (gp_Pnt2d::*)( const gp_Pnt2d & ) const>(&gp_Pnt2d::Distance),
R"#(Computes the distance between two points.)#" , py::arg("theOther")
)
.def("SquareDistance",
(Standard_Real (gp_Pnt2d::*)( const gp_Pnt2d & ) const) static_cast<Standard_Real (gp_Pnt2d::*)( const gp_Pnt2d & ) const>(&gp_Pnt2d::SquareDistance),
R"#(Computes the square distance between two points.)#" , py::arg("theOther")
)
.def("Mirror",
(void (gp_Pnt2d::*)( const gp_Pnt2d & ) ) static_cast<void (gp_Pnt2d::*)( const gp_Pnt2d & ) >(&gp_Pnt2d::Mirror),
R"#(Performs the symmetrical transformation of a point with respect to the point theP which is the center of the symmetry.)#" , py::arg("theP")
)
.def("Mirrored",
(gp_Pnt2d (gp_Pnt2d::*)( const gp_Pnt2d & ) const) static_cast<gp_Pnt2d (gp_Pnt2d::*)( const gp_Pnt2d & ) const>(&gp_Pnt2d::Mirrored),
R"#(Performs the symmetrical transformation of a point with respect to an axis placement which is the axis)#" , py::arg("theP")
)
.def("Mirror",
(void (gp_Pnt2d::*)( const gp_Ax2d & ) ) static_cast<void (gp_Pnt2d::*)( const gp_Ax2d & ) >(&gp_Pnt2d::Mirror),
R"#(None)#" , py::arg("theA")
)
.def("Mirrored",
(gp_Pnt2d (gp_Pnt2d::*)( const gp_Ax2d & ) const) static_cast<gp_Pnt2d (gp_Pnt2d::*)( const gp_Ax2d & ) const>(&gp_Pnt2d::Mirrored),
R"#(None)#" , py::arg("theA")
)
.def("Rotate",
(void (gp_Pnt2d::*)( const gp_Pnt2d & , const Standard_Real ) ) static_cast<void (gp_Pnt2d::*)( const gp_Pnt2d & , const Standard_Real ) >(&gp_Pnt2d::Rotate),
R"#(Rotates a point. theA1 is the axis of the rotation. Ang is the angular value of the rotation in radians.)#" , py::arg("theP"), py::arg("theAng")
)
.def("Rotated",
(gp_Pnt2d (gp_Pnt2d::*)( const gp_Pnt2d & , const Standard_Real ) const) static_cast<gp_Pnt2d (gp_Pnt2d::*)( const gp_Pnt2d & , const Standard_Real ) const>(&gp_Pnt2d::Rotated),
R"#(None)#" , py::arg("theP"), py::arg("theAng")
)
.def("Scale",
(void (gp_Pnt2d::*)( const gp_Pnt2d & , const Standard_Real ) ) static_cast<void (gp_Pnt2d::*)( const gp_Pnt2d & , const Standard_Real ) >(&gp_Pnt2d::Scale),
R"#(Scales a point. theS is the scaling value.)#" , py::arg("theP"), py::arg("theS")
)
.def("Scaled",
(gp_Pnt2d (gp_Pnt2d::*)( const gp_Pnt2d & , const Standard_Real ) const) static_cast<gp_Pnt2d (gp_Pnt2d::*)( const gp_Pnt2d & , const Standard_Real ) const>(&gp_Pnt2d::Scaled),
R"#(None)#" , py::arg("theP"), py::arg("theS")
)
.def("Transform",
(void (gp_Pnt2d::*)( const gp_Trsf2d & ) ) static_cast<void (gp_Pnt2d::*)( const gp_Trsf2d & ) >(&gp_Pnt2d::Transform),
R"#(Transforms a point with the transformation theT.)#" , py::arg("theT")
)
.def("Transformed",
(gp_Pnt2d (gp_Pnt2d::*)( const gp_Trsf2d & ) const) static_cast<gp_Pnt2d (gp_Pnt2d::*)( const gp_Trsf2d & ) const>(&gp_Pnt2d::Transformed),
R"#(None)#" , py::arg("theT")
)
.def("Translate",
(void (gp_Pnt2d::*)( const gp_Vec2d & ) ) static_cast<void (gp_Pnt2d::*)( const gp_Vec2d & ) >(&gp_Pnt2d::Translate),
R"#(Translates a point in the direction of the vector theV. The magnitude of the translation is the vector's magnitude.)#" , py::arg("theV")
)
.def("Translated",
(gp_Pnt2d (gp_Pnt2d::*)( const gp_Vec2d & ) const) static_cast<gp_Pnt2d (gp_Pnt2d::*)( const gp_Vec2d & ) const>(&gp_Pnt2d::Translated),
R"#(None)#" , py::arg("theV")
)
.def("Translate",
(void (gp_Pnt2d::*)( const gp_Pnt2d & , const gp_Pnt2d & ) ) static_cast<void (gp_Pnt2d::*)( const gp_Pnt2d & , const gp_Pnt2d & ) >(&gp_Pnt2d::Translate),
R"#(Translates a point from the point theP1 to the point theP2.)#" , py::arg("theP1"), py::arg("theP2")
)
.def("Translated",
(gp_Pnt2d (gp_Pnt2d::*)( const gp_Pnt2d & , const gp_Pnt2d & ) const) static_cast<gp_Pnt2d (gp_Pnt2d::*)( const gp_Pnt2d & , const gp_Pnt2d & ) const>(&gp_Pnt2d::Translated),
R"#(None)#" , py::arg("theP1"), py::arg("theP2")
)
.def("DumpJson",
(void (gp_Pnt2d::*)( std::ostream & , Standard_Integer ) const) static_cast<void (gp_Pnt2d::*)( std::ostream & , Standard_Integer ) const>(&gp_Pnt2d::DumpJson),
R"#(Dumps the content of me into the stream)#" , py::arg("theOStream"), py::arg("theDepth")=static_cast<Standard_Integer>(- 1)
)
.def("Distance",
(Standard_Real (gp_Pnt2d::*)( const gp_Pnt2d & ) const) static_cast<Standard_Real (gp_Pnt2d::*)( const gp_Pnt2d & ) const>(&gp_Pnt2d::Distance),
R"#(Computes the distance between two points.)#" , py::arg("theOther")
)
.def("SquareDistance",
(Standard_Real (gp_Pnt2d::*)( const gp_Pnt2d & ) const) static_cast<Standard_Real (gp_Pnt2d::*)( const gp_Pnt2d & ) const>(&gp_Pnt2d::SquareDistance),
R"#(Computes the square distance between two points.)#" , py::arg("theOther")
)
.def("Rotate",
(void (gp_Pnt2d::*)( const gp_Pnt2d & , const Standard_Real ) ) static_cast<void (gp_Pnt2d::*)( const gp_Pnt2d & , const Standard_Real ) >(&gp_Pnt2d::Rotate),
R"#(Rotates a point. theA1 is the axis of the rotation. Ang is the angular value of the rotation in radians.)#" , py::arg("theP"), py::arg("theAng")
)
.def("Scale",
(void (gp_Pnt2d::*)( const gp_Pnt2d & , const Standard_Real ) ) static_cast<void (gp_Pnt2d::*)( const gp_Pnt2d & , const Standard_Real ) >(&gp_Pnt2d::Scale),
R"#(Scales a point. theS is the scaling value.)#" , py::arg("theP"), py::arg("theS")
)
.def("Translate",
(void (gp_Pnt2d::*)( const gp_Vec2d & ) ) static_cast<void (gp_Pnt2d::*)( const gp_Vec2d & ) >(&gp_Pnt2d::Translate),
R"#(Translates a point in the direction of the vector theV. The magnitude of the translation is the vector's magnitude.)#" , py::arg("theV")
)
.def("Translated",
(gp_Pnt2d (gp_Pnt2d::*)( const gp_Vec2d & ) const) static_cast<gp_Pnt2d (gp_Pnt2d::*)( const gp_Vec2d & ) const>(&gp_Pnt2d::Translated),
R"#(None)#" , py::arg("theV")
)
// methods using call by reference i.s.o. return
.def("Coord",
[]( gp_Pnt2d &self ){
Standard_Real theXp;
Standard_Real theYp;
self.Coord(theXp,theYp);
return std::make_tuple(theXp,theYp); },
R"#(For this point returns its two coordinates as a number pair.)#"
)
// static methods
// static methods using call by reference i.s.o. return
// operators
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
.def("XY",
(const gp_XY & (gp_Pnt2d::*)() const) static_cast<const gp_XY & (gp_Pnt2d::*)() const>(&gp_Pnt2d::XY),
R"#(For this point, returns its two coordinates as a number pair.)#"
)
.def("Coord",
(const gp_XY & (gp_Pnt2d::*)() const) static_cast<const gp_XY & (gp_Pnt2d::*)() const>(&gp_Pnt2d::Coord),
R"#(For this point, returns its two coordinates as a number pair.)#"
)
.def("ChangeCoord",
(gp_XY & (gp_Pnt2d::*)() ) static_cast<gp_XY & (gp_Pnt2d::*)() >(&gp_Pnt2d::ChangeCoord),
R"#(Returns the coordinates of this point. Note: This syntax allows direct modification of the returned value.)#"
, py::return_value_policy::reference_internal
)
;
// Class gp_Quaternion from ./opencascade/gp_Quaternion.hxx
klass = m.attr("gp_Quaternion");
// nested enums
static_cast<py::class_<gp_Quaternion , shared_ptr<gp_Quaternion> >>(klass)
// constructors
.def(py::init< >() )
.def(py::init< const Standard_Real,const Standard_Real,const Standard_Real,const Standard_Real >() , py::arg("theX"), py::arg("theY"), py::arg("theZ"), py::arg("theW") )
.def(py::init< const gp_Vec &,const gp_Vec & >() , py::arg("theVecFrom"), py::arg("theVecTo") )
.def(py::init< const gp_Vec &,const gp_Vec &,const gp_Vec & >() , py::arg("theVecFrom"), py::arg("theVecTo"), py::arg("theHelpCrossVec") )
.def(py::init< const gp_Vec &,const Standard_Real >() , py::arg("theAxis"), py::arg("theAngle") )
.def(py::init< const gp_Mat & >() , py::arg("theMat") )
// custom constructors
// methods
.def("IsEqual",
(Standard_Boolean (gp_Quaternion::*)( const gp_Quaternion & ) const) static_cast<Standard_Boolean (gp_Quaternion::*)( const gp_Quaternion & ) const>(&gp_Quaternion::IsEqual),
R"#(Simple equal test without precision)#" , py::arg("theOther")
)
.def("SetRotation",
(void (gp_Quaternion::*)( const gp_Vec & , const gp_Vec & ) ) static_cast<void (gp_Quaternion::*)( const gp_Vec & , const gp_Vec & ) >(&gp_Quaternion::SetRotation),
R"#(Sets quaternion to shortest-arc rotation producing vector theVecTo from vector theVecFrom. If vectors theVecFrom and theVecTo are opposite then rotation axis is computed as theVecFrom ^ (1,0,0) or theVecFrom ^ (0,0,1).)#" , py::arg("theVecFrom"), py::arg("theVecTo")
)
.def("SetRotation",
(void (gp_Quaternion::*)( const gp_Vec & , const gp_Vec & , const gp_Vec & ) ) static_cast<void (gp_Quaternion::*)( const gp_Vec & , const gp_Vec & , const gp_Vec & ) >(&gp_Quaternion::SetRotation),
R"#(Sets quaternion to shortest-arc rotation producing vector theVecTo from vector theVecFrom. If vectors theVecFrom and theVecTo are opposite then rotation axis is computed as theVecFrom ^ theHelpCrossVec.)#" , py::arg("theVecFrom"), py::arg("theVecTo"), py::arg("theHelpCrossVec")
)
.def("SetVectorAndAngle",
(void (gp_Quaternion::*)( const gp_Vec & , const Standard_Real ) ) static_cast<void (gp_Quaternion::*)( const gp_Vec & , const Standard_Real ) >(&gp_Quaternion::SetVectorAndAngle),
R"#(Create a unit quaternion from Axis+Angle representation)#" , py::arg("theAxis"), py::arg("theAngle")
)
.def("SetMatrix",
(void (gp_Quaternion::*)( const gp_Mat & ) ) static_cast<void (gp_Quaternion::*)( const gp_Mat & ) >(&gp_Quaternion::SetMatrix),
R"#(Create a unit quaternion by rotation matrix matrix must contain only rotation (not scale or shear))#" , py::arg("theMat")
)
.def("GetMatrix",
(gp_Mat (gp_Quaternion::*)() const) static_cast<gp_Mat (gp_Quaternion::*)() const>(&gp_Quaternion::GetMatrix),
R"#(Returns rotation operation as 3*3 matrix)#"
)
.def("SetEulerAngles",
(void (gp_Quaternion::*)( const gp_EulerSequence , const Standard_Real , const Standard_Real , const Standard_Real ) ) static_cast<void (gp_Quaternion::*)( const gp_EulerSequence , const Standard_Real , const Standard_Real , const Standard_Real ) >(&gp_Quaternion::SetEulerAngles),
R"#(Create a unit quaternion representing rotation defined by generalized Euler angles)#" , py::arg("theOrder"), py::arg("theAlpha"), py::arg("theBeta"), py::arg("theGamma")
)
.def("Set",
(void (gp_Quaternion::*)( const Standard_Real , const Standard_Real , const Standard_Real , const Standard_Real ) ) static_cast<void (gp_Quaternion::*)( const Standard_Real , const Standard_Real , const Standard_Real , const Standard_Real ) >(&gp_Quaternion::Set),
R"#(None)#" , py::arg("theX"), py::arg("theY"), py::arg("theZ"), py::arg("theW")
)
.def("Set",
(void (gp_Quaternion::*)( const gp_Quaternion & ) ) static_cast<void (gp_Quaternion::*)( const gp_Quaternion & ) >(&gp_Quaternion::Set),
R"#(None)#" , py::arg("theQuaternion")
)
.def("X",
(Standard_Real (gp_Quaternion::*)() const) static_cast<Standard_Real (gp_Quaternion::*)() const>(&gp_Quaternion::X),
R"#(None)#"
)
.def("Y",
(Standard_Real (gp_Quaternion::*)() const) static_cast<Standard_Real (gp_Quaternion::*)() const>(&gp_Quaternion::Y),
R"#(None)#"
)
.def("Z",
(Standard_Real (gp_Quaternion::*)() const) static_cast<Standard_Real (gp_Quaternion::*)() const>(&gp_Quaternion::Z),
R"#(None)#"
)
.def("W",
(Standard_Real (gp_Quaternion::*)() const) static_cast<Standard_Real (gp_Quaternion::*)() const>(&gp_Quaternion::W),
R"#(None)#"
)
.def("SetIdent",
(void (gp_Quaternion::*)() ) static_cast<void (gp_Quaternion::*)() >(&gp_Quaternion::SetIdent),
R"#(Make identity quaternion (zero-rotation))#"
)
.def("Reverse",
(void (gp_Quaternion::*)() ) static_cast<void (gp_Quaternion::*)() >(&gp_Quaternion::Reverse),
R"#(Reverse direction of rotation (conjugate quaternion))#"
)
.def("Reversed",
(gp_Quaternion (gp_Quaternion::*)() const) static_cast<gp_Quaternion (gp_Quaternion::*)() const>(&gp_Quaternion::Reversed),
R"#(Return rotation with reversed direction (conjugated quaternion))#"
)
.def("Invert",
(void (gp_Quaternion::*)() ) static_cast<void (gp_Quaternion::*)() >(&gp_Quaternion::Invert),
R"#(Inverts quaternion (both rotation direction and norm))#"
)
.def("Inverted",
(gp_Quaternion (gp_Quaternion::*)() const) static_cast<gp_Quaternion (gp_Quaternion::*)() const>(&gp_Quaternion::Inverted),
R"#(Return inversed quaternion q^-1)#"
)
.def("SquareNorm",
(Standard_Real (gp_Quaternion::*)() const) static_cast<Standard_Real (gp_Quaternion::*)() const>(&gp_Quaternion::SquareNorm),
R"#(Returns square norm of quaternion)#"
)
.def("Norm",
(Standard_Real (gp_Quaternion::*)() const) static_cast<Standard_Real (gp_Quaternion::*)() const>(&gp_Quaternion::Norm),
R"#(Returns norm of quaternion)#"
)
.def("Scale",
(void (gp_Quaternion::*)( const Standard_Real ) ) static_cast<void (gp_Quaternion::*)( const Standard_Real ) >(&gp_Quaternion::Scale),
R"#(Scale all components by quaternion by theScale; note that rotation is not changed by this operation (except 0-scaling))#" , py::arg("theScale")
)
.def("Scaled",
(gp_Quaternion (gp_Quaternion::*)( const Standard_Real ) const) static_cast<gp_Quaternion (gp_Quaternion::*)( const Standard_Real ) const>(&gp_Quaternion::Scaled),
R"#(Returns scaled quaternion)#" , py::arg("theScale")
)
.def("StabilizeLength",
(void (gp_Quaternion::*)() ) static_cast<void (gp_Quaternion::*)() >(&gp_Quaternion::StabilizeLength),
R"#(Stabilize quaternion length within 1 - 1/4. This operation is a lot faster than normalization and preserve length goes to 0 or infinity)#"
)
.def("Normalize",
(void (gp_Quaternion::*)() ) static_cast<void (gp_Quaternion::*)() >(&gp_Quaternion::Normalize),
R"#(Scale quaternion that its norm goes to 1. The appearing of 0 magnitude or near is a error, so we can be sure that can divide by magnitude)#"
)
.def("Normalized",
(gp_Quaternion (gp_Quaternion::*)() const) static_cast<gp_Quaternion (gp_Quaternion::*)() const>(&gp_Quaternion::Normalized),
R"#(Returns quaternion scaled so that its norm goes to 1.)#"
)
.def("Negated",
(gp_Quaternion (gp_Quaternion::*)() const) static_cast<gp_Quaternion (gp_Quaternion::*)() const>(&gp_Quaternion::Negated),
R"#(Returns quaternion with all components negated. Note that this operation does not affect neither rotation operator defined by quaternion nor its norm.)#"
)
.def("Added",
(gp_Quaternion (gp_Quaternion::*)( const gp_Quaternion & ) const) static_cast<gp_Quaternion (gp_Quaternion::*)( const gp_Quaternion & ) const>(&gp_Quaternion::Added),
R"#(Makes sum of quaternion components; result is "rotations mix")#" , py::arg("theOther")
)
.def("Subtracted",
(gp_Quaternion (gp_Quaternion::*)( const gp_Quaternion & ) const) static_cast<gp_Quaternion (gp_Quaternion::*)( const gp_Quaternion & ) const>(&gp_Quaternion::Subtracted),
R"#(Makes difference of quaternion components; result is "rotations mix")#" , py::arg("theOther")
)
.def("Multiplied",
(gp_Quaternion (gp_Quaternion::*)( const gp_Quaternion & ) const) static_cast<gp_Quaternion (gp_Quaternion::*)( const gp_Quaternion & ) const>(&gp_Quaternion::Multiplied),
R"#(Multiply function - work the same as Matrices multiplying. Result is rotation combination: q' than q (here q=this, q'=theQ). Notices that:)#" , py::arg("theOther")
)
.def("Add",
(void (gp_Quaternion::*)( const gp_Quaternion & ) ) static_cast<void (gp_Quaternion::*)( const gp_Quaternion & ) >(&gp_Quaternion::Add),
R"#(Adds components of other quaternion; result is "rotations mix")#" , py::arg("theOther")
)
.def("Subtract",
(void (gp_Quaternion::*)( const gp_Quaternion & ) ) static_cast<void (gp_Quaternion::*)( const gp_Quaternion & ) >(&gp_Quaternion::Subtract),
R"#(Subtracts components of other quaternion; result is "rotations mix")#" , py::arg("theOther")
)
.def("Multiply",
(void (gp_Quaternion::*)( const gp_Quaternion & ) ) static_cast<void (gp_Quaternion::*)( const gp_Quaternion & ) >(&gp_Quaternion::Multiply),
R"#(Adds rotation by multiplication)#" , py::arg("theOther")
)
.def("Dot",
(Standard_Real (gp_Quaternion::*)( const gp_Quaternion & ) const) static_cast<Standard_Real (gp_Quaternion::*)( const gp_Quaternion & ) const>(&gp_Quaternion::Dot),
R"#(Computes inner product / scalar product / Dot)#" , py::arg("theOther")
)
.def("GetRotationAngle",
(Standard_Real (gp_Quaternion::*)() const) static_cast<Standard_Real (gp_Quaternion::*)() const>(&gp_Quaternion::GetRotationAngle),
R"#(Return rotation angle from -PI to PI)#"
)
.def("Multiply",
(gp_Vec (gp_Quaternion::*)( const gp_Vec & ) const) static_cast<gp_Vec (gp_Quaternion::*)( const gp_Vec & ) const>(&gp_Quaternion::Multiply),
R"#(Rotates vector by quaternion as rotation operator)#" , py::arg("theVec")
)
.def("Set",
(void (gp_Quaternion::*)( Standard_Real , Standard_Real , Standard_Real , Standard_Real ) ) static_cast<void (gp_Quaternion::*)( Standard_Real , Standard_Real , Standard_Real , Standard_Real ) >(&gp_Quaternion::Set),
R"#(None)#" , py::arg("theX"), py::arg("theY"), py::arg("theZ"), py::arg("theW")
)
.def("Set",
(void (gp_Quaternion::*)( const gp_Quaternion & ) ) static_cast<void (gp_Quaternion::*)( const gp_Quaternion & ) >(&gp_Quaternion::Set),
R"#(None)#" , py::arg("theQuaternion")
)
.def("Scale",
(void (gp_Quaternion::*)( const Standard_Real ) ) static_cast<void (gp_Quaternion::*)( const Standard_Real ) >(&gp_Quaternion::Scale),
R"#(Scale all components by quaternion by theScale; note that rotation is not changed by this operation (except 0-scaling))#" , py::arg("theScale")
)
.def("Multiplied",
(gp_Quaternion (gp_Quaternion::*)( const gp_Quaternion & ) const) static_cast<gp_Quaternion (gp_Quaternion::*)( const gp_Quaternion & ) const>(&gp_Quaternion::Multiplied),
R"#(Multiply function - work the same as Matrices multiplying. Result is rotation combination: q' than q (here q=this, q'=theQ). Notices that:)#" , py::arg("theQ")
)
.def("Add",
(void (gp_Quaternion::*)( const gp_Quaternion & ) ) static_cast<void (gp_Quaternion::*)( const gp_Quaternion & ) >(&gp_Quaternion::Add),
R"#(Adds components of other quaternion; result is "rotations mix")#" , py::arg("theQ")
)
.def("Subtract",
(void (gp_Quaternion::*)( const gp_Quaternion & ) ) static_cast<void (gp_Quaternion::*)( const gp_Quaternion & ) >(&gp_Quaternion::Subtract),
R"#(Subtracts components of other quaternion; result is "rotations mix")#" , py::arg("theQ")
)
// methods using call by reference i.s.o. return
.def("GetVectorAndAngle",
[]( gp_Quaternion &self , gp_Vec & theAxis ){
Standard_Real theAngle;
self.GetVectorAndAngle(theAxis,theAngle);
return std::make_tuple(theAngle); },
R"#(Convert a quaternion to Axis+Angle representation, preserve the axis direction and angle from -PI to +PI)#" , py::arg("theAxis")
)
.def("GetEulerAngles",
[]( gp_Quaternion &self , const gp_EulerSequence theOrder ){
Standard_Real theAlpha;
Standard_Real theBeta;
Standard_Real theGamma;
self.GetEulerAngles(theOrder,theAlpha,theBeta,theGamma);
return std::make_tuple(theAlpha,theBeta,theGamma); },
R"#(Returns Euler angles describing current rotation)#" , py::arg("theOrder")
)
// static methods
// static methods using call by reference i.s.o. return
// operators
.def("__imul__",
(void (gp_Quaternion::*)( const Standard_Real ) ) static_cast<void (gp_Quaternion::*)( const Standard_Real ) >(&gp_Quaternion::operator*=),
py::is_operator(),
R"#(None)#" , py::arg("theScale")
)
.def("__mul__",
(gp_Quaternion (gp_Quaternion::*)( const Standard_Real ) const) static_cast<gp_Quaternion (gp_Quaternion::*)( const Standard_Real ) const>(&gp_Quaternion::operator*),
py::is_operator(),
R"#(None)#" , py::arg("theScale")
)
.def("__rmul__",
(gp_Quaternion (gp_Quaternion::*)( const Standard_Real ) const) static_cast<gp_Quaternion (gp_Quaternion::*)( const Standard_Real ) const>(&gp_Quaternion::operator*),
py::is_operator(),
R"#(None)#" , py::arg("theScale")
)
.def("__sub__",
(gp_Quaternion (gp_Quaternion::*)() const) static_cast<gp_Quaternion (gp_Quaternion::*)() const>(&gp_Quaternion::operator-),
py::is_operator(),
R"#(None)#"
)
.def("__add__",
(gp_Quaternion (gp_Quaternion::*)( const gp_Quaternion & ) const) static_cast<gp_Quaternion (gp_Quaternion::*)( const gp_Quaternion & ) const>(&gp_Quaternion::operator+),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
.def("__sub__",
(gp_Quaternion (gp_Quaternion::*)( const gp_Quaternion & ) const) static_cast<gp_Quaternion (gp_Quaternion::*)( const gp_Quaternion & ) const>(&gp_Quaternion::operator-),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
.def("__mul__",
(gp_Quaternion (gp_Quaternion::*)( const gp_Quaternion & ) const) static_cast<gp_Quaternion (gp_Quaternion::*)( const gp_Quaternion & ) const>(&gp_Quaternion::operator*),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
.def("__rmul__",
(gp_Quaternion (gp_Quaternion::*)( const gp_Quaternion & ) const) static_cast<gp_Quaternion (gp_Quaternion::*)( const gp_Quaternion & ) const>(&gp_Quaternion::operator*),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
.def("__iadd__",
(void (gp_Quaternion::*)( const gp_Quaternion & ) ) static_cast<void (gp_Quaternion::*)( const gp_Quaternion & ) >(&gp_Quaternion::operator+=),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
.def("__isub__",
(void (gp_Quaternion::*)( const gp_Quaternion & ) ) static_cast<void (gp_Quaternion::*)( const gp_Quaternion & ) >(&gp_Quaternion::operator-=),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
.def("__imul__",
(void (gp_Quaternion::*)( const gp_Quaternion & ) ) static_cast<void (gp_Quaternion::*)( const gp_Quaternion & ) >(&gp_Quaternion::operator*=),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
.def("__mul__",
(gp_Vec (gp_Quaternion::*)( const gp_Vec & ) const) static_cast<gp_Vec (gp_Quaternion::*)( const gp_Vec & ) const>(&gp_Quaternion::operator*),
py::is_operator(),
R"#(None)#" , py::arg("theVec")
)
.def("__rmul__",
(gp_Vec (gp_Quaternion::*)( const gp_Vec & ) const) static_cast<gp_Vec (gp_Quaternion::*)( const gp_Vec & ) const>(&gp_Quaternion::operator*),
py::is_operator(),
R"#(None)#" , py::arg("theVec")
)
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
;
// Class gp_QuaternionNLerp from ./opencascade/gp_QuaternionNLerp.hxx
klass = m.attr("gp_QuaternionNLerp");
// nested enums
static_cast<py::class_<gp_QuaternionNLerp , shared_ptr<gp_QuaternionNLerp> >>(klass)
// constructors
.def(py::init< >() )
.def(py::init< const gp_Quaternion &,const gp_Quaternion & >() , py::arg("theQStart"), py::arg("theQEnd") )
// custom constructors
// methods
.def("Init",
(void (gp_QuaternionNLerp::*)( const gp_Quaternion & , const gp_Quaternion & ) ) static_cast<void (gp_QuaternionNLerp::*)( const gp_Quaternion & , const gp_Quaternion & ) >(&gp_QuaternionNLerp::Init),
R"#(Initialize the tool with Start and End values.)#" , py::arg("theQStart"), py::arg("theQEnd")
)
.def("InitFromUnit",
(void (gp_QuaternionNLerp::*)( const gp_Quaternion & , const gp_Quaternion & ) ) static_cast<void (gp_QuaternionNLerp::*)( const gp_Quaternion & , const gp_Quaternion & ) >(&gp_QuaternionNLerp::InitFromUnit),
R"#(Initialize the tool with Start and End unit quaternions.)#" , py::arg("theQStart"), py::arg("theQEnd")
)
.def("Interpolate",
(void (gp_QuaternionNLerp::*)( Standard_Real , gp_Quaternion & ) const) static_cast<void (gp_QuaternionNLerp::*)( Standard_Real , gp_Quaternion & ) const>(&gp_QuaternionNLerp::Interpolate),
R"#(Set interpolated quaternion for theT position (from 0.0 to 1.0))#" , py::arg("theT"), py::arg("theResultQ")
)
// methods using call by reference i.s.o. return
// static methods
.def_static("Interpolate_s",
(gp_Quaternion (*)( const gp_Quaternion & , const gp_Quaternion & , Standard_Real ) ) static_cast<gp_Quaternion (*)( const gp_Quaternion & , const gp_Quaternion & , Standard_Real ) >(&gp_QuaternionNLerp::Interpolate),
R"#(Compute interpolated quaternion between two quaternions.)#" , py::arg("theQStart"), py::arg("theQEnd"), py::arg("theT")
)
// static methods using call by reference i.s.o. return
// operators
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
;
// Class gp_QuaternionSLerp from ./opencascade/gp_QuaternionSLerp.hxx
klass = m.attr("gp_QuaternionSLerp");
// nested enums
static_cast<py::class_<gp_QuaternionSLerp , shared_ptr<gp_QuaternionSLerp> >>(klass)
// constructors
.def(py::init< >() )
.def(py::init< const gp_Quaternion &,const gp_Quaternion & >() , py::arg("theQStart"), py::arg("theQEnd") )
// custom constructors
// methods
.def("Init",
(void (gp_QuaternionSLerp::*)( const gp_Quaternion & , const gp_Quaternion & ) ) static_cast<void (gp_QuaternionSLerp::*)( const gp_Quaternion & , const gp_Quaternion & ) >(&gp_QuaternionSLerp::Init),
R"#(Initialize the tool with Start and End values.)#" , py::arg("theQStart"), py::arg("theQEnd")
)
.def("InitFromUnit",
(void (gp_QuaternionSLerp::*)( const gp_Quaternion & , const gp_Quaternion & ) ) static_cast<void (gp_QuaternionSLerp::*)( const gp_Quaternion & , const gp_Quaternion & ) >(&gp_QuaternionSLerp::InitFromUnit),
R"#(Initialize the tool with Start and End unit quaternions.)#" , py::arg("theQStart"), py::arg("theQEnd")
)
.def("Interpolate",
(void (gp_QuaternionSLerp::*)( Standard_Real , gp_Quaternion & ) const) static_cast<void (gp_QuaternionSLerp::*)( Standard_Real , gp_Quaternion & ) const>(&gp_QuaternionSLerp::Interpolate),
R"#(Set interpolated quaternion for theT position (from 0.0 to 1.0))#" , py::arg("theT"), py::arg("theResultQ")
)
// methods using call by reference i.s.o. return
// static methods
.def_static("Interpolate_s",
(gp_Quaternion (*)( const gp_Quaternion & , const gp_Quaternion & , Standard_Real ) ) static_cast<gp_Quaternion (*)( const gp_Quaternion & , const gp_Quaternion & , Standard_Real ) >(&gp_QuaternionSLerp::Interpolate),
R"#(Compute interpolated quaternion between two quaternions.)#" , py::arg("theQStart"), py::arg("theQEnd"), py::arg("theT")
)
// static methods using call by reference i.s.o. return
// operators
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
;
// Class gp_Sphere from ./opencascade/gp_Sphere.hxx
klass = m.attr("gp_Sphere");
// nested enums
static_cast<py::class_<gp_Sphere , shared_ptr<gp_Sphere> >>(klass)
// constructors
.def(py::init< >() )
.def(py::init< const gp_Ax3 &,const Standard_Real >() , py::arg("theA3"), py::arg("theRadius") )
// custom constructors
// methods
.def("SetLocation",
(void (gp_Sphere::*)( const gp_Pnt & ) ) static_cast<void (gp_Sphere::*)( const gp_Pnt & ) >(&gp_Sphere::SetLocation),
R"#(Changes the center of the sphere.)#" , py::arg("theLoc")
)
.def("SetPosition",
(void (gp_Sphere::*)( const gp_Ax3 & ) ) static_cast<void (gp_Sphere::*)( const gp_Ax3 & ) >(&gp_Sphere::SetPosition),
R"#(Changes the local coordinate system of the sphere.)#" , py::arg("theA3")
)
.def("SetRadius",
(void (gp_Sphere::*)( const Standard_Real ) ) static_cast<void (gp_Sphere::*)( const Standard_Real ) >(&gp_Sphere::SetRadius),
R"#(Assigns theR the radius of the Sphere. Warnings : It is not forbidden to create a sphere with null radius. Raises ConstructionError if theR < 0.0)#" , py::arg("theR")
)
.def("Area",
(Standard_Real (gp_Sphere::*)() const) static_cast<Standard_Real (gp_Sphere::*)() const>(&gp_Sphere::Area),
R"#(Computes the area of the sphere.)#"
)
.def("UReverse",
(void (gp_Sphere::*)() ) static_cast<void (gp_Sphere::*)() >(&gp_Sphere::UReverse),
R"#(Reverses the U parametrization of the sphere reversing the YAxis.)#"
)
.def("VReverse",
(void (gp_Sphere::*)() ) static_cast<void (gp_Sphere::*)() >(&gp_Sphere::VReverse),
R"#(Reverses the V parametrization of the sphere reversing the ZAxis.)#"
)
.def("Direct",
(Standard_Boolean (gp_Sphere::*)() const) static_cast<Standard_Boolean (gp_Sphere::*)() const>(&gp_Sphere::Direct),
R"#(Returns true if the local coordinate system of this sphere is right-handed.)#"
)
.def("Radius",
(Standard_Real (gp_Sphere::*)() const) static_cast<Standard_Real (gp_Sphere::*)() const>(&gp_Sphere::Radius),
R"#(Returns the radius of the sphere.)#"
)
.def("Volume",
(Standard_Real (gp_Sphere::*)() const) static_cast<Standard_Real (gp_Sphere::*)() const>(&gp_Sphere::Volume),
R"#(Computes the volume of the sphere)#"
)
.def("XAxis",
(gp_Ax1 (gp_Sphere::*)() const) static_cast<gp_Ax1 (gp_Sphere::*)() const>(&gp_Sphere::XAxis),
R"#(Returns the axis X of the sphere.)#"
)
.def("YAxis",
(gp_Ax1 (gp_Sphere::*)() const) static_cast<gp_Ax1 (gp_Sphere::*)() const>(&gp_Sphere::YAxis),
R"#(Returns the axis Y of the sphere.)#"
)
.def("Mirror",
(void (gp_Sphere::*)( const gp_Pnt & ) ) static_cast<void (gp_Sphere::*)( const gp_Pnt & ) >(&gp_Sphere::Mirror),
R"#(None)#" , py::arg("theP")
)
.def("Mirrored",
(gp_Sphere (gp_Sphere::*)( const gp_Pnt & ) const) static_cast<gp_Sphere (gp_Sphere::*)( const gp_Pnt & ) const>(&gp_Sphere::Mirrored),
R"#(Performs the symmetrical transformation of a sphere with respect to the point theP which is the center of the symmetry.)#" , py::arg("theP")
)
.def("Mirror",
(void (gp_Sphere::*)( const gp_Ax1 & ) ) static_cast<void (gp_Sphere::*)( const gp_Ax1 & ) >(&gp_Sphere::Mirror),
R"#(None)#" , py::arg("theA1")
)
.def("Mirrored",
(gp_Sphere (gp_Sphere::*)( const gp_Ax1 & ) const) static_cast<gp_Sphere (gp_Sphere::*)( const gp_Ax1 & ) const>(&gp_Sphere::Mirrored),
R"#(Performs the symmetrical transformation of a sphere with respect to an axis placement which is the axis of the symmetry.)#" , py::arg("theA1")
)
.def("Mirror",
(void (gp_Sphere::*)( const gp_Ax2 & ) ) static_cast<void (gp_Sphere::*)( const gp_Ax2 & ) >(&gp_Sphere::Mirror),
R"#(None)#" , py::arg("theA2")
)
.def("Mirrored",
(gp_Sphere (gp_Sphere::*)( const gp_Ax2 & ) const) static_cast<gp_Sphere (gp_Sphere::*)( const gp_Ax2 & ) const>(&gp_Sphere::Mirrored),
R"#(Performs the symmetrical transformation of a sphere with respect to a plane. The axis placement theA2 locates the plane of the of the symmetry : (Location, XDirection, YDirection).)#" , py::arg("theA2")
)
.def("Rotate",
(void (gp_Sphere::*)( const gp_Ax1 & , const Standard_Real ) ) static_cast<void (gp_Sphere::*)( const gp_Ax1 & , const Standard_Real ) >(&gp_Sphere::Rotate),
R"#(None)#" , py::arg("theA1"), py::arg("theAng")
)
.def("Rotated",
(gp_Sphere (gp_Sphere::*)( const gp_Ax1 & , const Standard_Real ) const) static_cast<gp_Sphere (gp_Sphere::*)( const gp_Ax1 & , const Standard_Real ) const>(&gp_Sphere::Rotated),
R"#(Rotates a sphere. theA1 is the axis of the rotation. theAng is the angular value of the rotation in radians.)#" , py::arg("theA1"), py::arg("theAng")
)
.def("Scale",
(void (gp_Sphere::*)( const gp_Pnt & , const Standard_Real ) ) static_cast<void (gp_Sphere::*)( const gp_Pnt & , const Standard_Real ) >(&gp_Sphere::Scale),
R"#(None)#" , py::arg("theP"), py::arg("theS")
)
.def("Scaled",
(gp_Sphere (gp_Sphere::*)( const gp_Pnt & , const Standard_Real ) const) static_cast<gp_Sphere (gp_Sphere::*)( const gp_Pnt & , const Standard_Real ) const>(&gp_Sphere::Scaled),
R"#(Scales a sphere. theS is the scaling value. The absolute value of S is used to scale the sphere)#" , py::arg("theP"), py::arg("theS")
)
.def("Transform",
(void (gp_Sphere::*)( const gp_Trsf & ) ) static_cast<void (gp_Sphere::*)( const gp_Trsf & ) >(&gp_Sphere::Transform),
R"#(None)#" , py::arg("theT")
)
.def("Transformed",
(gp_Sphere (gp_Sphere::*)( const gp_Trsf & ) const) static_cast<gp_Sphere (gp_Sphere::*)( const gp_Trsf & ) const>(&gp_Sphere::Transformed),
R"#(Transforms a sphere with the transformation theT from class Trsf.)#" , py::arg("theT")
)
.def("Translate",
(void (gp_Sphere::*)( const gp_Vec & ) ) static_cast<void (gp_Sphere::*)( const gp_Vec & ) >(&gp_Sphere::Translate),
R"#(None)#" , py::arg("theV")
)
.def("Translated",
(gp_Sphere (gp_Sphere::*)( const gp_Vec & ) const) static_cast<gp_Sphere (gp_Sphere::*)( const gp_Vec & ) const>(&gp_Sphere::Translated),
R"#(Translates a sphere in the direction of the vector theV. The magnitude of the translation is the vector's magnitude.)#" , py::arg("theV")
)
.def("Translate",
(void (gp_Sphere::*)( const gp_Pnt & , const gp_Pnt & ) ) static_cast<void (gp_Sphere::*)( const gp_Pnt & , const gp_Pnt & ) >(&gp_Sphere::Translate),
R"#(None)#" , py::arg("theP1"), py::arg("theP2")
)
.def("Translated",
(gp_Sphere (gp_Sphere::*)( const gp_Pnt & , const gp_Pnt & ) const) static_cast<gp_Sphere (gp_Sphere::*)( const gp_Pnt & , const gp_Pnt & ) const>(&gp_Sphere::Translated),
R"#(Translates a sphere from the point theP1 to the point theP2.)#" , py::arg("theP1"), py::arg("theP2")
)
.def("Scale",
(void (gp_Sphere::*)( const gp_Pnt & , const Standard_Real ) ) static_cast<void (gp_Sphere::*)( const gp_Pnt & , const Standard_Real ) >(&gp_Sphere::Scale),
R"#(None)#" , py::arg("theP"), py::arg("theS")
)
.def("Scaled",
(gp_Sphere (gp_Sphere::*)( const gp_Pnt & , const Standard_Real ) const) static_cast<gp_Sphere (gp_Sphere::*)( const gp_Pnt & , const Standard_Real ) const>(&gp_Sphere::Scaled),
R"#(Scales a sphere. theS is the scaling value. The absolute value of S is used to scale the sphere)#" , py::arg("theP"), py::arg("theS")
)
.def("Transform",
(void (gp_Sphere::*)( const gp_Trsf & ) ) static_cast<void (gp_Sphere::*)( const gp_Trsf & ) >(&gp_Sphere::Transform),
R"#(None)#" , py::arg("theT")
)
.def("Transformed",
(gp_Sphere (gp_Sphere::*)( const gp_Trsf & ) const) static_cast<gp_Sphere (gp_Sphere::*)( const gp_Trsf & ) const>(&gp_Sphere::Transformed),
R"#(Transforms a sphere with the transformation theT from class Trsf.)#" , py::arg("theT")
)
// methods using call by reference i.s.o. return
.def("Coefficients",
[]( gp_Sphere &self ){
Standard_Real theA1;
Standard_Real theA2;
Standard_Real theA3;
Standard_Real theB1;
Standard_Real theB2;
Standard_Real theB3;
Standard_Real theC1;
Standard_Real theC2;
Standard_Real theC3;
Standard_Real theD;
self.Coefficients(theA1,theA2,theA3,theB1,theB2,theB3,theC1,theC2,theC3,theD);
return std::make_tuple(theA1,theA2,theA3,theB1,theB2,theB3,theC1,theC2,theC3,theD); },
R"#(Computes the coefficients of the implicit equation of the quadric in the absolute cartesian coordinates system :)#"
)
// static methods
// static methods using call by reference i.s.o. return
// operators
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
.def("Location",
(const gp_Pnt & (gp_Sphere::*)() const) static_cast<const gp_Pnt & (gp_Sphere::*)() const>(&gp_Sphere::Location),
R"#(--- Purpose ; Returns the center of the sphere.)#"
)
.def("Position",
(const gp_Ax3 & (gp_Sphere::*)() const) static_cast<const gp_Ax3 & (gp_Sphere::*)() const>(&gp_Sphere::Position),
R"#(Returns the local coordinates system of the sphere.)#"
)
;
// Class gp_Torus from ./opencascade/gp_Torus.hxx
klass = m.attr("gp_Torus");
// nested enums
static_cast<py::class_<gp_Torus , shared_ptr<gp_Torus> >>(klass)
// constructors
.def(py::init< >() )
.def(py::init< const gp_Ax3 &,const Standard_Real,const Standard_Real >() , py::arg("theA3"), py::arg("theMajorRadius"), py::arg("theMinorRadius") )
// custom constructors
// methods
.def("SetAxis",
(void (gp_Torus::*)( const gp_Ax1 & ) ) static_cast<void (gp_Torus::*)( const gp_Ax1 & ) >(&gp_Torus::SetAxis),
R"#(Modifies this torus, by redefining its local coordinate system so that: - its origin and "main Direction" become those of the axis theA1 (the "X Direction" and "Y Direction" are then recomputed). Raises ConstructionError if the direction of theA1 is parallel to the "XDirection" of the coordinate system of the toroidal surface.)#" , py::arg("theA1")
)
.def("SetLocation",
(void (gp_Torus::*)( const gp_Pnt & ) ) static_cast<void (gp_Torus::*)( const gp_Pnt & ) >(&gp_Torus::SetLocation),
R"#(Changes the location of the torus.)#" , py::arg("theLoc")
)
.def("SetMajorRadius",
(void (gp_Torus::*)( const Standard_Real ) ) static_cast<void (gp_Torus::*)( const Standard_Real ) >(&gp_Torus::SetMajorRadius),
R"#(Assigns value to the major radius of this torus. Raises ConstructionError if theMajorRadius - MinorRadius <= Resolution())#" , py::arg("theMajorRadius")
)
.def("SetMinorRadius",
(void (gp_Torus::*)( const Standard_Real ) ) static_cast<void (gp_Torus::*)( const Standard_Real ) >(&gp_Torus::SetMinorRadius),
R"#(Assigns value to the minor radius of this torus. Raises ConstructionError if theMinorRadius < 0.0 or if MajorRadius - theMinorRadius <= Resolution from gp.)#" , py::arg("theMinorRadius")
)
.def("SetPosition",
(void (gp_Torus::*)( const gp_Ax3 & ) ) static_cast<void (gp_Torus::*)( const gp_Ax3 & ) >(&gp_Torus::SetPosition),
R"#(Changes the local coordinate system of the surface.)#" , py::arg("theA3")
)
.def("Area",
(Standard_Real (gp_Torus::*)() const) static_cast<Standard_Real (gp_Torus::*)() const>(&gp_Torus::Area),
R"#(Computes the area of the torus.)#"
)
.def("UReverse",
(void (gp_Torus::*)() ) static_cast<void (gp_Torus::*)() >(&gp_Torus::UReverse),
R"#(Reverses the U parametrization of the torus reversing the YAxis.)#"
)
.def("VReverse",
(void (gp_Torus::*)() ) static_cast<void (gp_Torus::*)() >(&gp_Torus::VReverse),
R"#(Reverses the V parametrization of the torus reversing the ZAxis.)#"
)
.def("Direct",
(Standard_Boolean (gp_Torus::*)() const) static_cast<Standard_Boolean (gp_Torus::*)() const>(&gp_Torus::Direct),
R"#(returns true if the Ax3, the local coordinate system of this torus, is right handed.)#"
)
.def("Coefficients",
(void (gp_Torus::*)( NCollection_Array1<Standard_Real> & ) const) static_cast<void (gp_Torus::*)( NCollection_Array1<Standard_Real> & ) const>(&gp_Torus::Coefficients),
R"#(Computes the coefficients of the implicit equation of the surface in the absolute Cartesian coordinate system: Raises DimensionError if the length of theCoef is lower than 35.)#" , py::arg("theCoef")
)
.def("MajorRadius",
(Standard_Real (gp_Torus::*)() const) static_cast<Standard_Real (gp_Torus::*)() const>(&gp_Torus::MajorRadius),
R"#(returns the major radius of the torus.)#"
)
.def("MinorRadius",
(Standard_Real (gp_Torus::*)() const) static_cast<Standard_Real (gp_Torus::*)() const>(&gp_Torus::MinorRadius),
R"#(returns the minor radius of the torus.)#"
)
.def("Volume",
(Standard_Real (gp_Torus::*)() const) static_cast<Standard_Real (gp_Torus::*)() const>(&gp_Torus::Volume),
R"#(Computes the volume of the torus.)#"
)
.def("XAxis",
(gp_Ax1 (gp_Torus::*)() const) static_cast<gp_Ax1 (gp_Torus::*)() const>(&gp_Torus::XAxis),
R"#(returns the axis X of the torus.)#"
)
.def("YAxis",
(gp_Ax1 (gp_Torus::*)() const) static_cast<gp_Ax1 (gp_Torus::*)() const>(&gp_Torus::YAxis),
R"#(returns the axis Y of the torus.)#"
)
.def("Mirror",
(void (gp_Torus::*)( const gp_Pnt & ) ) static_cast<void (gp_Torus::*)( const gp_Pnt & ) >(&gp_Torus::Mirror),
R"#(None)#" , py::arg("theP")
)
.def("Mirrored",
(gp_Torus (gp_Torus::*)( const gp_Pnt & ) const) static_cast<gp_Torus (gp_Torus::*)( const gp_Pnt & ) const>(&gp_Torus::Mirrored),
R"#(Performs the symmetrical transformation of a torus with respect to the point theP which is the center of the symmetry.)#" , py::arg("theP")
)
.def("Mirror",
(void (gp_Torus::*)( const gp_Ax1 & ) ) static_cast<void (gp_Torus::*)( const gp_Ax1 & ) >(&gp_Torus::Mirror),
R"#(None)#" , py::arg("theA1")
)
.def("Mirrored",
(gp_Torus (gp_Torus::*)( const gp_Ax1 & ) const) static_cast<gp_Torus (gp_Torus::*)( const gp_Ax1 & ) const>(&gp_Torus::Mirrored),
R"#(Performs the symmetrical transformation of a torus with respect to an axis placement which is the axis of the symmetry.)#" , py::arg("theA1")
)
.def("Mirror",
(void (gp_Torus::*)( const gp_Ax2 & ) ) static_cast<void (gp_Torus::*)( const gp_Ax2 & ) >(&gp_Torus::Mirror),
R"#(None)#" , py::arg("theA2")
)
.def("Mirrored",
(gp_Torus (gp_Torus::*)( const gp_Ax2 & ) const) static_cast<gp_Torus (gp_Torus::*)( const gp_Ax2 & ) const>(&gp_Torus::Mirrored),
R"#(Performs the symmetrical transformation of a torus with respect to a plane. The axis placement theA2 locates the plane of the of the symmetry : (Location, XDirection, YDirection).)#" , py::arg("theA2")
)
.def("Rotate",
(void (gp_Torus::*)( const gp_Ax1 & , const Standard_Real ) ) static_cast<void (gp_Torus::*)( const gp_Ax1 & , const Standard_Real ) >(&gp_Torus::Rotate),
R"#(None)#" , py::arg("theA1"), py::arg("theAng")
)
.def("Rotated",
(gp_Torus (gp_Torus::*)( const gp_Ax1 & , const Standard_Real ) const) static_cast<gp_Torus (gp_Torus::*)( const gp_Ax1 & , const Standard_Real ) const>(&gp_Torus::Rotated),
R"#(Rotates a torus. theA1 is the axis of the rotation. theAng is the angular value of the rotation in radians.)#" , py::arg("theA1"), py::arg("theAng")
)
.def("Scale",
(void (gp_Torus::*)( const gp_Pnt & , const Standard_Real ) ) static_cast<void (gp_Torus::*)( const gp_Pnt & , const Standard_Real ) >(&gp_Torus::Scale),
R"#(None)#" , py::arg("theP"), py::arg("theS")
)
.def("Scaled",
(gp_Torus (gp_Torus::*)( const gp_Pnt & , const Standard_Real ) const) static_cast<gp_Torus (gp_Torus::*)( const gp_Pnt & , const Standard_Real ) const>(&gp_Torus::Scaled),
R"#(Scales a torus. S is the scaling value. The absolute value of S is used to scale the torus)#" , py::arg("theP"), py::arg("theS")
)
.def("Transform",
(void (gp_Torus::*)( const gp_Trsf & ) ) static_cast<void (gp_Torus::*)( const gp_Trsf & ) >(&gp_Torus::Transform),
R"#(None)#" , py::arg("theT")
)
.def("Transformed",
(gp_Torus (gp_Torus::*)( const gp_Trsf & ) const) static_cast<gp_Torus (gp_Torus::*)( const gp_Trsf & ) const>(&gp_Torus::Transformed),
R"#(Transforms a torus with the transformation theT from class Trsf.)#" , py::arg("theT")
)
.def("Translate",
(void (gp_Torus::*)( const gp_Vec & ) ) static_cast<void (gp_Torus::*)( const gp_Vec & ) >(&gp_Torus::Translate),
R"#(None)#" , py::arg("theV")
)
.def("Translated",
(gp_Torus (gp_Torus::*)( const gp_Vec & ) const) static_cast<gp_Torus (gp_Torus::*)( const gp_Vec & ) const>(&gp_Torus::Translated),
R"#(Translates a torus in the direction of the vector theV. The magnitude of the translation is the vector's magnitude.)#" , py::arg("theV")
)
.def("Translate",
(void (gp_Torus::*)( const gp_Pnt & , const gp_Pnt & ) ) static_cast<void (gp_Torus::*)( const gp_Pnt & , const gp_Pnt & ) >(&gp_Torus::Translate),
R"#(None)#" , py::arg("theP1"), py::arg("theP2")
)
.def("Translated",
(gp_Torus (gp_Torus::*)( const gp_Pnt & , const gp_Pnt & ) const) static_cast<gp_Torus (gp_Torus::*)( const gp_Pnt & , const gp_Pnt & ) const>(&gp_Torus::Translated),
R"#(Translates a torus from the point theP1 to the point theP2.)#" , py::arg("theP1"), py::arg("theP2")
)
.def("Scale",
(void (gp_Torus::*)( const gp_Pnt & , const Standard_Real ) ) static_cast<void (gp_Torus::*)( const gp_Pnt & , const Standard_Real ) >(&gp_Torus::Scale),
R"#(None)#" , py::arg("theP"), py::arg("theS")
)
.def("Scaled",
(gp_Torus (gp_Torus::*)( const gp_Pnt & , const Standard_Real ) const) static_cast<gp_Torus (gp_Torus::*)( const gp_Pnt & , const Standard_Real ) const>(&gp_Torus::Scaled),
R"#(Scales a torus. S is the scaling value. The absolute value of S is used to scale the torus)#" , py::arg("theP"), py::arg("theS")
)
.def("Transform",
(void (gp_Torus::*)( const gp_Trsf & ) ) static_cast<void (gp_Torus::*)( const gp_Trsf & ) >(&gp_Torus::Transform),
R"#(None)#" , py::arg("theT")
)
.def("Transformed",
(gp_Torus (gp_Torus::*)( const gp_Trsf & ) const) static_cast<gp_Torus (gp_Torus::*)( const gp_Trsf & ) const>(&gp_Torus::Transformed),
R"#(Transforms a torus with the transformation theT from class Trsf.)#" , py::arg("theT")
)
// methods using call by reference i.s.o. return
// static methods
// static methods using call by reference i.s.o. return
// operators
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
.def("Axis",
(const gp_Ax1 & (gp_Torus::*)() const) static_cast<const gp_Ax1 & (gp_Torus::*)() const>(&gp_Torus::Axis),
R"#(returns the symmetry axis of the torus.)#"
)
.def("Location",
(const gp_Pnt & (gp_Torus::*)() const) static_cast<const gp_Pnt & (gp_Torus::*)() const>(&gp_Torus::Location),
R"#(Returns the Torus's location.)#"
)
.def("Position",
(const gp_Ax3 & (gp_Torus::*)() const) static_cast<const gp_Ax3 & (gp_Torus::*)() const>(&gp_Torus::Position),
R"#(Returns the local coordinates system of the torus.)#"
)
;
// Class gp_Trsf from ./opencascade/gp_Trsf.hxx
klass = m.attr("gp_Trsf");
// nested enums
static_cast<py::class_<gp_Trsf , shared_ptr<gp_Trsf> >>(klass)
// constructors
.def(py::init< >() )
.def(py::init< const gp_Trsf2d & >() , py::arg("theT") )
// custom constructors
// methods
.def("SetMirror",
(void (gp_Trsf::*)( const gp_Pnt & ) ) static_cast<void (gp_Trsf::*)( const gp_Pnt & ) >(&gp_Trsf::SetMirror),
R"#(Makes the transformation into a symmetrical transformation. theP is the center of the symmetry.)#" , py::arg("theP")
)
.def("SetMirror",
(void (gp_Trsf::*)( const gp_Ax1 & ) ) static_cast<void (gp_Trsf::*)( const gp_Ax1 & ) >(&gp_Trsf::SetMirror),
R"#(Makes the transformation into a symmetrical transformation. theA1 is the center of the axial symmetry.)#" , py::arg("theA1")
)
.def("SetMirror",
(void (gp_Trsf::*)( const gp_Ax2 & ) ) static_cast<void (gp_Trsf::*)( const gp_Ax2 & ) >(&gp_Trsf::SetMirror),
R"#(Makes the transformation into a symmetrical transformation. theA2 is the center of the planar symmetry and defines the plane of symmetry by its origin, "X Direction" and "Y Direction".)#" , py::arg("theA2")
)
.def("SetRotation",
(void (gp_Trsf::*)( const gp_Ax1 & , const Standard_Real ) ) static_cast<void (gp_Trsf::*)( const gp_Ax1 & , const Standard_Real ) >(&gp_Trsf::SetRotation),
R"#(Changes the transformation into a rotation. theA1 is the rotation axis and theAng is the angular value of the rotation in radians.)#" , py::arg("theA1"), py::arg("theAng")
)
.def("SetRotation",
(void (gp_Trsf::*)( const gp_Quaternion & ) ) static_cast<void (gp_Trsf::*)( const gp_Quaternion & ) >(&gp_Trsf::SetRotation),
R"#(Changes the transformation into a rotation defined by quaternion. Note that rotation is performed around origin, i.e. no translation is involved.)#" , py::arg("theR")
)
.def("SetRotationPart",
(void (gp_Trsf::*)( const gp_Quaternion & ) ) static_cast<void (gp_Trsf::*)( const gp_Quaternion & ) >(&gp_Trsf::SetRotationPart),
R"#(Replaces the rotation part with specified quaternion.)#" , py::arg("theR")
)
.def("SetScale",
(void (gp_Trsf::*)( const gp_Pnt & , const Standard_Real ) ) static_cast<void (gp_Trsf::*)( const gp_Pnt & , const Standard_Real ) >(&gp_Trsf::SetScale),
R"#(Changes the transformation into a scale. theP is the center of the scale and theS is the scaling value. Raises ConstructionError If <theS> is null.)#" , py::arg("theP"), py::arg("theS")
)
.def("SetDisplacement",
(void (gp_Trsf::*)( const gp_Ax3 & , const gp_Ax3 & ) ) static_cast<void (gp_Trsf::*)( const gp_Ax3 & , const gp_Ax3 & ) >(&gp_Trsf::SetDisplacement),
R"#(Modifies this transformation so that it transforms the coordinate system defined by theFromSystem1 into the one defined by theToSystem2. After this modification, this transformation transforms: - the origin of theFromSystem1 into the origin of theToSystem2, - the "X Direction" of theFromSystem1 into the "X Direction" of theToSystem2, - the "Y Direction" of theFromSystem1 into the "Y Direction" of theToSystem2, and - the "main Direction" of theFromSystem1 into the "main Direction" of theToSystem2. Warning When you know the coordinates of a point in one coordinate system and you want to express these coordinates in another one, do not use the transformation resulting from this function. Use the transformation that results from SetTransformation instead. SetDisplacement and SetTransformation create related transformations: the vectorial part of one is the inverse of the vectorial part of the other.)#" , py::arg("theFromSystem1"), py::arg("theToSystem2")
)
.def("SetTransformation",
(void (gp_Trsf::*)( const gp_Ax3 & , const gp_Ax3 & ) ) static_cast<void (gp_Trsf::*)( const gp_Ax3 & , const gp_Ax3 & ) >(&gp_Trsf::SetTransformation),
R"#(Modifies this transformation so that it transforms the coordinates of any point, (x, y, z), relative to a source coordinate system into the coordinates (x', y', z') which are relative to a target coordinate system, but which represent the same point The transformation is from the coordinate system "theFromSystem1" to the coordinate system "theToSystem2". Example :)#" , py::arg("theFromSystem1"), py::arg("theToSystem2")
)
.def("SetTransformation",
(void (gp_Trsf::*)( const gp_Ax3 & ) ) static_cast<void (gp_Trsf::*)( const gp_Ax3 & ) >(&gp_Trsf::SetTransformation),
R"#(Modifies this transformation so that it transforms the coordinates of any point, (x, y, z), relative to a source coordinate system into the coordinates (x', y', z') which are relative to a target coordinate system, but which represent the same point The transformation is from the default coordinate system to the local coordinate system defined with the Ax3 theToSystem. Use in the same way as the previous method. FromSystem1 is defaulted to the absolute coordinate system.)#" , py::arg("theToSystem")
)
.def("SetTransformation",
(void (gp_Trsf::*)( const gp_Quaternion & , const gp_Vec & ) ) static_cast<void (gp_Trsf::*)( const gp_Quaternion & , const gp_Vec & ) >(&gp_Trsf::SetTransformation),
R"#(Sets transformation by directly specified rotation and translation.)#" , py::arg("R"), py::arg("theT")
)
.def("SetTranslation",
(void (gp_Trsf::*)( const gp_Vec & ) ) static_cast<void (gp_Trsf::*)( const gp_Vec & ) >(&gp_Trsf::SetTranslation),
R"#(Changes the transformation into a translation. theV is the vector of the translation.)#" , py::arg("theV")
)
.def("SetTranslation",
(void (gp_Trsf::*)( const gp_Pnt & , const gp_Pnt & ) ) static_cast<void (gp_Trsf::*)( const gp_Pnt & , const gp_Pnt & ) >(&gp_Trsf::SetTranslation),
R"#(Makes the transformation into a translation where the translation vector is the vector (theP1, theP2) defined from point theP1 to point theP2.)#" , py::arg("theP1"), py::arg("theP2")
)
.def("SetTranslationPart",
(void (gp_Trsf::*)( const gp_Vec & ) ) static_cast<void (gp_Trsf::*)( const gp_Vec & ) >(&gp_Trsf::SetTranslationPart),
R"#(Replaces the translation vector with the vector theV.)#" , py::arg("theV")
)
.def("SetScaleFactor",
(void (gp_Trsf::*)( const Standard_Real ) ) static_cast<void (gp_Trsf::*)( const Standard_Real ) >(&gp_Trsf::SetScaleFactor),
R"#(Modifies the scale factor. Raises ConstructionError If theS is null.)#" , py::arg("theS")
)
.def("SetForm",
(void (gp_Trsf::*)( const gp_TrsfForm ) ) static_cast<void (gp_Trsf::*)( const gp_TrsfForm ) >(&gp_Trsf::SetForm),
R"#(None)#" , py::arg("theP")
)
.def("SetValues",
(void (gp_Trsf::*)( const Standard_Real , const Standard_Real , const Standard_Real , const Standard_Real , const Standard_Real , const Standard_Real , const Standard_Real , const Standard_Real , const Standard_Real , const Standard_Real , const Standard_Real , const Standard_Real ) ) static_cast<void (gp_Trsf::*)( const Standard_Real , const Standard_Real , const Standard_Real , const Standard_Real , const Standard_Real , const Standard_Real , const Standard_Real , const Standard_Real , const Standard_Real , const Standard_Real , const Standard_Real , const Standard_Real ) >(&gp_Trsf::SetValues),
R"#(Sets the coefficients of the transformation. The transformation of the point x,y,z is the point x',y',z' with : The method Value(i,j) will return aij. Raises ConstructionError if the determinant of the aij is null. The matrix is orthogonalized before future using.)#" , py::arg("a11"), py::arg("a12"), py::arg("a13"), py::arg("a14"), py::arg("a21"), py::arg("a22"), py::arg("a23"), py::arg("a24"), py::arg("a31"), py::arg("a32"), py::arg("a33"), py::arg("a34")
)
.def("IsNegative",
(Standard_Boolean (gp_Trsf::*)() const) static_cast<Standard_Boolean (gp_Trsf::*)() const>(&gp_Trsf::IsNegative),
R"#(Returns true if the determinant of the vectorial part of this transformation is negative.)#"
)
.def("Form",
(gp_TrsfForm (gp_Trsf::*)() const) static_cast<gp_TrsfForm (gp_Trsf::*)() const>(&gp_Trsf::Form),
R"#(Returns the nature of the transformation. It can be: an identity transformation, a rotation, a translation, a mirror transformation (relative to a point, an axis or a plane), a scaling transformation, or a compound transformation.)#"
)
.def("ScaleFactor",
(Standard_Real (gp_Trsf::*)() const) static_cast<Standard_Real (gp_Trsf::*)() const>(&gp_Trsf::ScaleFactor),
R"#(Returns the scale factor.)#"
)
.def("GetRotation",
(Standard_Boolean (gp_Trsf::*)( gp_XYZ & , Standard_Real & ) const) static_cast<Standard_Boolean (gp_Trsf::*)( gp_XYZ & , Standard_Real & ) const>(&gp_Trsf::GetRotation),
R"#(Returns the boolean True if there is non-zero rotation. In the presence of rotation, the output parameters store the axis and the angle of rotation. The method always returns positive value "theAngle", i.e., 0. < theAngle <= PI. Note that this rotation is defined only by the vectorial part of the transformation; generally you would need to check also the translational part to obtain the axis (gp_Ax1) of rotation.)#" , py::arg("theAxis"), py::arg("theAngle")
)
.def("GetRotation",
(gp_Quaternion (gp_Trsf::*)() const) static_cast<gp_Quaternion (gp_Trsf::*)() const>(&gp_Trsf::GetRotation),
R"#(Returns quaternion representing rotational part of the transformation.)#"
)
.def("VectorialPart",
(gp_Mat (gp_Trsf::*)() const) static_cast<gp_Mat (gp_Trsf::*)() const>(&gp_Trsf::VectorialPart),
R"#(Returns the vectorial part of the transformation. It is a 3*3 matrix which includes the scale factor.)#"
)
.def("Value",
(Standard_Real (gp_Trsf::*)( const Standard_Integer , const Standard_Integer ) const) static_cast<Standard_Real (gp_Trsf::*)( const Standard_Integer , const Standard_Integer ) const>(&gp_Trsf::Value),
R"#(Returns the coefficients of the transformation's matrix. It is a 3 rows * 4 columns matrix. This coefficient includes the scale factor. Raises OutOfRanged if theRow < 1 or theRow > 3 or theCol < 1 or theCol > 4)#" , py::arg("theRow"), py::arg("theCol")
)
.def("Invert",
(void (gp_Trsf::*)() ) static_cast<void (gp_Trsf::*)() >(&gp_Trsf::Invert),
R"#(None)#"
)
.def("Inverted",
(gp_Trsf (gp_Trsf::*)() const) static_cast<gp_Trsf (gp_Trsf::*)() const>(&gp_Trsf::Inverted),
R"#(Computes the reverse transformation Raises an exception if the matrix of the transformation is not inversible, it means that the scale factor is lower or equal to Resolution from package gp. Computes the transformation composed with T and <me>. In a C++ implementation you can also write Tcomposed = <me> * T. Example :)#"
)
.def("Multiplied",
(gp_Trsf (gp_Trsf::*)( const gp_Trsf & ) const) static_cast<gp_Trsf (gp_Trsf::*)( const gp_Trsf & ) const>(&gp_Trsf::Multiplied),
R"#(None)#" , py::arg("theT")
)
.def("Multiply",
(void (gp_Trsf::*)( const gp_Trsf & ) ) static_cast<void (gp_Trsf::*)( const gp_Trsf & ) >(&gp_Trsf::Multiply),
R"#(Computes the transformation composed with <me> and theT. <me> = <me> * theT)#" , py::arg("theT")
)
.def("PreMultiply",
(void (gp_Trsf::*)( const gp_Trsf & ) ) static_cast<void (gp_Trsf::*)( const gp_Trsf & ) >(&gp_Trsf::PreMultiply),
R"#(Computes the transformation composed with <me> and T. <me> = theT * <me>)#" , py::arg("theT")
)
.def("Power",
(void (gp_Trsf::*)( const Standard_Integer ) ) static_cast<void (gp_Trsf::*)( const Standard_Integer ) >(&gp_Trsf::Power),
R"#(None)#" , py::arg("theN")
)
.def("Powered",
(gp_Trsf (gp_Trsf::*)( const Standard_Integer ) const) static_cast<gp_Trsf (gp_Trsf::*)( const Standard_Integer ) const>(&gp_Trsf::Powered),
R"#(Computes the following composition of transformations <me> * <me> * .......* <me>, theN time. if theN = 0 <me> = Identity if theN < 0 <me> = <me>.Inverse() *...........* <me>.Inverse().)#" , py::arg("theN")
)
.def("Transforms",
(void (gp_Trsf::*)( gp_XYZ & ) const) static_cast<void (gp_Trsf::*)( gp_XYZ & ) const>(&gp_Trsf::Transforms),
R"#(Transformation of a triplet XYZ with a Trsf)#" , py::arg("theCoord")
)
.def("DumpJson",
(void (gp_Trsf::*)( std::ostream & , Standard_Integer ) const) static_cast<void (gp_Trsf::*)( std::ostream & , Standard_Integer ) const>(&gp_Trsf::DumpJson),
R"#(Dumps the content of me into the stream)#" , py::arg("theOStream"), py::arg("theDepth")=static_cast<Standard_Integer>(- 1)
)
.def("InitFromJson",
(Standard_Boolean (gp_Trsf::*)( const std::stringstream & , Standard_Integer & ) ) static_cast<Standard_Boolean (gp_Trsf::*)( const std::stringstream & , Standard_Integer & ) >(&gp_Trsf::InitFromJson),
R"#(Inits the content of me from the stream)#" , py::arg("theSStream"), py::arg("theStreamPos")
)
.def("SetMirror",
(void (gp_Trsf::*)( const gp_Pnt & ) ) static_cast<void (gp_Trsf::*)( const gp_Pnt & ) >(&gp_Trsf::SetMirror),
R"#(Makes the transformation into a symmetrical transformation. theP is the center of the symmetry.)#" , py::arg("theP")
)
.def("SetTranslation",
(void (gp_Trsf::*)( const gp_Vec & ) ) static_cast<void (gp_Trsf::*)( const gp_Vec & ) >(&gp_Trsf::SetTranslation),
R"#(Changes the transformation into a translation. theV is the vector of the translation.)#" , py::arg("theV")
)
.def("SetTranslation",
(void (gp_Trsf::*)( const gp_Pnt & , const gp_Pnt & ) ) static_cast<void (gp_Trsf::*)( const gp_Pnt & , const gp_Pnt & ) >(&gp_Trsf::SetTranslation),
R"#(Makes the transformation into a translation where the translation vector is the vector (theP1, theP2) defined from point theP1 to point theP2.)#" , py::arg("theP1"), py::arg("theP2")
)
.def("Value",
(Standard_Real (gp_Trsf::*)( const Standard_Integer , const Standard_Integer ) const) static_cast<Standard_Real (gp_Trsf::*)( const Standard_Integer , const Standard_Integer ) const>(&gp_Trsf::Value),
R"#(Returns the coefficients of the transformation's matrix. It is a 3 rows * 4 columns matrix. This coefficient includes the scale factor. Raises OutOfRanged if theRow < 1 or theRow > 3 or theCol < 1 or theCol > 4)#" , py::arg("theRow"), py::arg("theCol")
)
.def("Transforms",
(void (gp_Trsf::*)( gp_XYZ & ) const) static_cast<void (gp_Trsf::*)( gp_XYZ & ) const>(&gp_Trsf::Transforms),
R"#(Transformation of a triplet XYZ with a Trsf)#" , py::arg("theCoord")
)
// methods using call by reference i.s.o. return
.def("Transforms",
[]( gp_Trsf &self ){
Standard_Real theX;
Standard_Real theY;
Standard_Real theZ;
self.Transforms(theX,theY,theZ);
return std::make_tuple(theX,theY,theZ); },
R"#(None)#"
)
.def("Transforms",
[]( gp_Trsf &self ){
Standard_Real theX;
Standard_Real theY;
Standard_Real theZ;
self.Transforms(theX,theY,theZ);
return std::make_tuple(theX,theY,theZ); },
R"#(None)#"
)
// static methods
// static methods using call by reference i.s.o. return
// operators
.def("__mul__",
(gp_Trsf (gp_Trsf::*)( const gp_Trsf & ) const) static_cast<gp_Trsf (gp_Trsf::*)( const gp_Trsf & ) const>(&gp_Trsf::operator*),
py::is_operator(),
R"#(None)#" , py::arg("theT")
)
.def("__rmul__",
(gp_Trsf (gp_Trsf::*)( const gp_Trsf & ) const) static_cast<gp_Trsf (gp_Trsf::*)( const gp_Trsf & ) const>(&gp_Trsf::operator*),
py::is_operator(),
R"#(None)#" , py::arg("theT")
)
.def("__imul__",
(void (gp_Trsf::*)( const gp_Trsf & ) ) static_cast<void (gp_Trsf::*)( const gp_Trsf & ) >(&gp_Trsf::operator*=),
py::is_operator(),
R"#(None)#" , py::arg("theT")
)
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
.def("TranslationPart",
(const gp_XYZ & (gp_Trsf::*)() const) static_cast<const gp_XYZ & (gp_Trsf::*)() const>(&gp_Trsf::TranslationPart),
R"#(Returns the translation part of the transformation's matrix)#"
)
.def("HVectorialPart",
(const gp_Mat & (gp_Trsf::*)() const) static_cast<const gp_Mat & (gp_Trsf::*)() const>(&gp_Trsf::HVectorialPart),
R"#(Computes the homogeneous vectorial part of the transformation. It is a 3*3 matrix which doesn't include the scale factor. In other words, the vectorial part of this transformation is equal to its homogeneous vectorial part, multiplied by the scale factor. The coefficients of this matrix must be multiplied by the scale factor to obtain the coefficients of the transformation.)#"
)
;
// Class gp_Trsf2d from ./opencascade/gp_Trsf2d.hxx
klass = m.attr("gp_Trsf2d");
// nested enums
static_cast<py::class_<gp_Trsf2d , shared_ptr<gp_Trsf2d> >>(klass)
// constructors
.def(py::init< >() )
.def(py::init< const gp_Trsf & >() , py::arg("theT") )
// custom constructors
// methods
.def("SetMirror",
(void (gp_Trsf2d::*)( const gp_Pnt2d & ) ) static_cast<void (gp_Trsf2d::*)( const gp_Pnt2d & ) >(&gp_Trsf2d::SetMirror),
R"#(Changes the transformation into a symmetrical transformation. theP is the center of the symmetry.)#" , py::arg("theP")
)
.def("SetMirror",
(void (gp_Trsf2d::*)( const gp_Ax2d & ) ) static_cast<void (gp_Trsf2d::*)( const gp_Ax2d & ) >(&gp_Trsf2d::SetMirror),
R"#(Changes the transformation into a symmetrical transformation. theA is the center of the axial symmetry.)#" , py::arg("theA")
)
.def("SetRotation",
(void (gp_Trsf2d::*)( const gp_Pnt2d & , const Standard_Real ) ) static_cast<void (gp_Trsf2d::*)( const gp_Pnt2d & , const Standard_Real ) >(&gp_Trsf2d::SetRotation),
R"#(Changes the transformation into a rotation. theP is the rotation's center and theAng is the angular value of the rotation in radian.)#" , py::arg("theP"), py::arg("theAng")
)
.def("SetScale",
(void (gp_Trsf2d::*)( const gp_Pnt2d & , const Standard_Real ) ) static_cast<void (gp_Trsf2d::*)( const gp_Pnt2d & , const Standard_Real ) >(&gp_Trsf2d::SetScale),
R"#(Changes the transformation into a scale. theP is the center of the scale and theS is the scaling value.)#" , py::arg("theP"), py::arg("theS")
)
.def("SetTransformation",
(void (gp_Trsf2d::*)( const gp_Ax2d & , const gp_Ax2d & ) ) static_cast<void (gp_Trsf2d::*)( const gp_Ax2d & , const gp_Ax2d & ) >(&gp_Trsf2d::SetTransformation),
R"#(Changes a transformation allowing passage from the coordinate system "theFromSystem1" to the coordinate system "theToSystem2".)#" , py::arg("theFromSystem1"), py::arg("theToSystem2")
)
.def("SetTransformation",
(void (gp_Trsf2d::*)( const gp_Ax2d & ) ) static_cast<void (gp_Trsf2d::*)( const gp_Ax2d & ) >(&gp_Trsf2d::SetTransformation),
R"#(Changes the transformation allowing passage from the basic coordinate system {P(0.,0.,0.), VX (1.,0.,0.), VY (0.,1.,0.)} to the local coordinate system defined with the Ax2d theToSystem.)#" , py::arg("theToSystem")
)
.def("SetTranslation",
(void (gp_Trsf2d::*)( const gp_Vec2d & ) ) static_cast<void (gp_Trsf2d::*)( const gp_Vec2d & ) >(&gp_Trsf2d::SetTranslation),
R"#(Changes the transformation into a translation. theV is the vector of the translation.)#" , py::arg("theV")
)
.def("SetTranslation",
(void (gp_Trsf2d::*)( const gp_Pnt2d & , const gp_Pnt2d & ) ) static_cast<void (gp_Trsf2d::*)( const gp_Pnt2d & , const gp_Pnt2d & ) >(&gp_Trsf2d::SetTranslation),
R"#(Makes the transformation into a translation from the point theP1 to the point theP2.)#" , py::arg("theP1"), py::arg("theP2")
)
.def("SetTranslationPart",
(void (gp_Trsf2d::*)( const gp_Vec2d & ) ) static_cast<void (gp_Trsf2d::*)( const gp_Vec2d & ) >(&gp_Trsf2d::SetTranslationPart),
R"#(Replaces the translation vector with theV.)#" , py::arg("theV")
)
.def("SetScaleFactor",
(void (gp_Trsf2d::*)( const Standard_Real ) ) static_cast<void (gp_Trsf2d::*)( const Standard_Real ) >(&gp_Trsf2d::SetScaleFactor),
R"#(Modifies the scale factor.)#" , py::arg("theS")
)
.def("IsNegative",
(Standard_Boolean (gp_Trsf2d::*)() const) static_cast<Standard_Boolean (gp_Trsf2d::*)() const>(&gp_Trsf2d::IsNegative),
R"#(Returns true if the determinant of the vectorial part of this transformation is negative..)#"
)
.def("Form",
(gp_TrsfForm (gp_Trsf2d::*)() const) static_cast<gp_TrsfForm (gp_Trsf2d::*)() const>(&gp_Trsf2d::Form),
R"#(Returns the nature of the transformation. It can be an identity transformation, a rotation, a translation, a mirror (relative to a point or an axis), a scaling transformation, or a compound transformation.)#"
)
.def("ScaleFactor",
(Standard_Real (gp_Trsf2d::*)() const) static_cast<Standard_Real (gp_Trsf2d::*)() const>(&gp_Trsf2d::ScaleFactor),
R"#(Returns the scale factor.)#"
)
.def("VectorialPart",
(gp_Mat2d (gp_Trsf2d::*)() const) static_cast<gp_Mat2d (gp_Trsf2d::*)() const>(&gp_Trsf2d::VectorialPart),
R"#(Returns the vectorial part of the transformation. It is a 2*2 matrix which includes the scale factor.)#"
)
.def("RotationPart",
(Standard_Real (gp_Trsf2d::*)() const) static_cast<Standard_Real (gp_Trsf2d::*)() const>(&gp_Trsf2d::RotationPart),
R"#(Returns the angle corresponding to the rotational component of the transformation matrix (operation opposite to SetRotation()).)#"
)
.def("Value",
(Standard_Real (gp_Trsf2d::*)( const Standard_Integer , const Standard_Integer ) const) static_cast<Standard_Real (gp_Trsf2d::*)( const Standard_Integer , const Standard_Integer ) const>(&gp_Trsf2d::Value),
R"#(Returns the coefficients of the transformation's matrix. It is a 2 rows * 3 columns matrix. Raises OutOfRange if theRow < 1 or theRow > 2 or theCol < 1 or theCol > 3)#" , py::arg("theRow"), py::arg("theCol")
)
.def("Invert",
(void (gp_Trsf2d::*)() ) static_cast<void (gp_Trsf2d::*)() >(&gp_Trsf2d::Invert),
R"#(None)#"
)
.def("Inverted",
(gp_Trsf2d (gp_Trsf2d::*)() const) static_cast<gp_Trsf2d (gp_Trsf2d::*)() const>(&gp_Trsf2d::Inverted),
R"#(Computes the reverse transformation. Raises an exception if the matrix of the transformation is not inversible, it means that the scale factor is lower or equal to Resolution from package gp.)#"
)
.def("Multiplied",
(gp_Trsf2d (gp_Trsf2d::*)( const gp_Trsf2d & ) const) static_cast<gp_Trsf2d (gp_Trsf2d::*)( const gp_Trsf2d & ) const>(&gp_Trsf2d::Multiplied),
R"#(None)#" , py::arg("theT")
)
.def("Multiply",
(void (gp_Trsf2d::*)( const gp_Trsf2d & ) ) static_cast<void (gp_Trsf2d::*)( const gp_Trsf2d & ) >(&gp_Trsf2d::Multiply),
R"#(Computes the transformation composed from <me> and theT. <me> = <me> * theT)#" , py::arg("theT")
)
.def("PreMultiply",
(void (gp_Trsf2d::*)( const gp_Trsf2d & ) ) static_cast<void (gp_Trsf2d::*)( const gp_Trsf2d & ) >(&gp_Trsf2d::PreMultiply),
R"#(Computes the transformation composed from <me> and theT. <me> = theT * <me>)#" , py::arg("theT")
)
.def("Power",
(void (gp_Trsf2d::*)( const Standard_Integer ) ) static_cast<void (gp_Trsf2d::*)( const Standard_Integer ) >(&gp_Trsf2d::Power),
R"#(None)#" , py::arg("theN")
)
.def("Powered",
(gp_Trsf2d (gp_Trsf2d::*)( const Standard_Integer ) ) static_cast<gp_Trsf2d (gp_Trsf2d::*)( const Standard_Integer ) >(&gp_Trsf2d::Powered),
R"#(Computes the following composition of transformations <me> * <me> * .......* <me>, theN time. if theN = 0 <me> = Identity if theN < 0 <me> = <me>.Inverse() *...........* <me>.Inverse().)#" , py::arg("theN")
)
.def("Transforms",
(void (gp_Trsf2d::*)( gp_XY & ) const) static_cast<void (gp_Trsf2d::*)( gp_XY & ) const>(&gp_Trsf2d::Transforms),
R"#(Transforms a doublet XY with a Trsf2d)#" , py::arg("theCoord")
)
.def("SetValues",
(void (gp_Trsf2d::*)( const Standard_Real , const Standard_Real , const Standard_Real , const Standard_Real , const Standard_Real , const Standard_Real ) ) static_cast<void (gp_Trsf2d::*)( const Standard_Real , const Standard_Real , const Standard_Real , const Standard_Real , const Standard_Real , const Standard_Real ) >(&gp_Trsf2d::SetValues),
R"#(Sets the coefficients of the transformation. The transformation of the point x,y is the point x',y' with : The method Value(i,j) will return aij. Raises ConstructionError if the determinant of the aij is null. If the matrix as not a uniform scale it will be orthogonalized before future using.)#" , py::arg("a11"), py::arg("a12"), py::arg("a13"), py::arg("a21"), py::arg("a22"), py::arg("a23")
)
.def("SetRotation",
(void (gp_Trsf2d::*)( const gp_Pnt2d & , const Standard_Real ) ) static_cast<void (gp_Trsf2d::*)( const gp_Pnt2d & , const Standard_Real ) >(&gp_Trsf2d::SetRotation),
R"#(Changes the transformation into a rotation. theP is the rotation's center and theAng is the angular value of the rotation in radian.)#" , py::arg("theP"), py::arg("theAng")
)
.def("SetMirror",
(void (gp_Trsf2d::*)( const gp_Pnt2d & ) ) static_cast<void (gp_Trsf2d::*)( const gp_Pnt2d & ) >(&gp_Trsf2d::SetMirror),
R"#(Changes the transformation into a symmetrical transformation. theP is the center of the symmetry.)#" , py::arg("theP")
)
.def("SetScale",
(void (gp_Trsf2d::*)( const gp_Pnt2d & , const Standard_Real ) ) static_cast<void (gp_Trsf2d::*)( const gp_Pnt2d & , const Standard_Real ) >(&gp_Trsf2d::SetScale),
R"#(Changes the transformation into a scale. theP is the center of the scale and theS is the scaling value.)#" , py::arg("theP"), py::arg("theS")
)
.def("SetTranslation",
(void (gp_Trsf2d::*)( const gp_Vec2d & ) ) static_cast<void (gp_Trsf2d::*)( const gp_Vec2d & ) >(&gp_Trsf2d::SetTranslation),
R"#(Changes the transformation into a translation. theV is the vector of the translation.)#" , py::arg("theV")
)
.def("SetTranslation",
(void (gp_Trsf2d::*)( const gp_Pnt2d & , const gp_Pnt2d & ) ) static_cast<void (gp_Trsf2d::*)( const gp_Pnt2d & , const gp_Pnt2d & ) >(&gp_Trsf2d::SetTranslation),
R"#(Makes the transformation into a translation from the point theP1 to the point theP2.)#" , py::arg("theP1"), py::arg("theP2")
)
.def("Value",
(Standard_Real (gp_Trsf2d::*)( const Standard_Integer , const Standard_Integer ) const) static_cast<Standard_Real (gp_Trsf2d::*)( const Standard_Integer , const Standard_Integer ) const>(&gp_Trsf2d::Value),
R"#(Returns the coefficients of the transformation's matrix. It is a 2 rows * 3 columns matrix. Raises OutOfRange if theRow < 1 or theRow > 2 or theCol < 1 or theCol > 3)#" , py::arg("theRow"), py::arg("theCol")
)
.def("Transforms",
(void (gp_Trsf2d::*)( gp_XY & ) const) static_cast<void (gp_Trsf2d::*)( gp_XY & ) const>(&gp_Trsf2d::Transforms),
R"#(Transforms a doublet XY with a Trsf2d)#" , py::arg("theCoord")
)
// methods using call by reference i.s.o. return
.def("Transforms",
[]( gp_Trsf2d &self ){
Standard_Real theX;
Standard_Real theY;
self.Transforms(theX,theY);
return std::make_tuple(theX,theY); },
R"#(None)#"
)
.def("Transforms",
[]( gp_Trsf2d &self ){
Standard_Real theX;
Standard_Real theY;
self.Transforms(theX,theY);
return std::make_tuple(theX,theY); },
R"#(None)#"
)
// static methods
// static methods using call by reference i.s.o. return
// operators
.def("__mul__",
(gp_Trsf2d (gp_Trsf2d::*)( const gp_Trsf2d & ) const) static_cast<gp_Trsf2d (gp_Trsf2d::*)( const gp_Trsf2d & ) const>(&gp_Trsf2d::operator*),
py::is_operator(),
R"#(None)#" , py::arg("theT")
)
.def("__rmul__",
(gp_Trsf2d (gp_Trsf2d::*)( const gp_Trsf2d & ) const) static_cast<gp_Trsf2d (gp_Trsf2d::*)( const gp_Trsf2d & ) const>(&gp_Trsf2d::operator*),
py::is_operator(),
R"#(None)#" , py::arg("theT")
)
.def("__imul__",
(void (gp_Trsf2d::*)( const gp_Trsf2d & ) ) static_cast<void (gp_Trsf2d::*)( const gp_Trsf2d & ) >(&gp_Trsf2d::operator*=),
py::is_operator(),
R"#(None)#" , py::arg("theT")
)
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
.def("TranslationPart",
(const gp_XY & (gp_Trsf2d::*)() const) static_cast<const gp_XY & (gp_Trsf2d::*)() const>(&gp_Trsf2d::TranslationPart),
R"#(Returns the translation part of the transformation's matrix)#"
)
.def("HVectorialPart",
(const gp_Mat2d & (gp_Trsf2d::*)() const) static_cast<const gp_Mat2d & (gp_Trsf2d::*)() const>(&gp_Trsf2d::HVectorialPart),
R"#(Returns the homogeneous vectorial part of the transformation. It is a 2*2 matrix which doesn't include the scale factor. The coefficients of this matrix must be multiplied by the scale factor to obtain the coefficients of the transformation.)#"
)
;
// Class gp_Vec from ./opencascade/gp_Vec.hxx
klass = m.attr("gp_Vec");
// nested enums
static_cast<py::class_<gp_Vec , shared_ptr<gp_Vec> >>(klass)
// constructors
.def(py::init< >() )
.def(py::init< const gp_Dir & >() , py::arg("theV") )
.def(py::init< const gp_XYZ & >() , py::arg("theCoord") )
.def(py::init< const Standard_Real,const Standard_Real,const Standard_Real >() , py::arg("theXv"), py::arg("theYv"), py::arg("theZv") )
.def(py::init< const gp_Pnt &,const gp_Pnt & >() , py::arg("theP1"), py::arg("theP2") )
// custom constructors
// methods
.def("SetCoord",
(void (gp_Vec::*)( const Standard_Integer , const Standard_Real ) ) static_cast<void (gp_Vec::*)( const Standard_Integer , const Standard_Real ) >(&gp_Vec::SetCoord),
R"#(Changes the coordinate of range theIndex theIndex = 1 => X is modified theIndex = 2 => Y is modified theIndex = 3 => Z is modified Raised if theIndex != {1, 2, 3}.)#" , py::arg("theIndex"), py::arg("theXi")
)
.def("SetCoord",
(void (gp_Vec::*)( const Standard_Real , const Standard_Real , const Standard_Real ) ) static_cast<void (gp_Vec::*)( const Standard_Real , const Standard_Real , const Standard_Real ) >(&gp_Vec::SetCoord),
R"#(For this vector, assigns - the values theXv, theYv and theZv to its three coordinates.)#" , py::arg("theXv"), py::arg("theYv"), py::arg("theZv")
)
.def("SetX",
(void (gp_Vec::*)( const Standard_Real ) ) static_cast<void (gp_Vec::*)( const Standard_Real ) >(&gp_Vec::SetX),
R"#(Assigns the given value to the X coordinate of this vector.)#" , py::arg("theX")
)
.def("SetY",
(void (gp_Vec::*)( const Standard_Real ) ) static_cast<void (gp_Vec::*)( const Standard_Real ) >(&gp_Vec::SetY),
R"#(Assigns the given value to the X coordinate of this vector.)#" , py::arg("theY")
)
.def("SetZ",
(void (gp_Vec::*)( const Standard_Real ) ) static_cast<void (gp_Vec::*)( const Standard_Real ) >(&gp_Vec::SetZ),
R"#(Assigns the given value to the X coordinate of this vector.)#" , py::arg("theZ")
)
.def("SetXYZ",
(void (gp_Vec::*)( const gp_XYZ & ) ) static_cast<void (gp_Vec::*)( const gp_XYZ & ) >(&gp_Vec::SetXYZ),
R"#(Assigns the three coordinates of theCoord to this vector.)#" , py::arg("theCoord")
)
.def("Coord",
(Standard_Real (gp_Vec::*)( const Standard_Integer ) const) static_cast<Standard_Real (gp_Vec::*)( const Standard_Integer ) const>(&gp_Vec::Coord),
R"#(Returns the coordinate of range theIndex : theIndex = 1 => X is returned theIndex = 2 => Y is returned theIndex = 3 => Z is returned Raised if theIndex != {1, 2, 3}.)#" , py::arg("theIndex")
)
.def("X",
(Standard_Real (gp_Vec::*)() const) static_cast<Standard_Real (gp_Vec::*)() const>(&gp_Vec::X),
R"#(For this vector, returns its X coordinate.)#"
)
.def("Y",
(Standard_Real (gp_Vec::*)() const) static_cast<Standard_Real (gp_Vec::*)() const>(&gp_Vec::Y),
R"#(For this vector, returns its Y coordinate.)#"
)
.def("Z",
(Standard_Real (gp_Vec::*)() const) static_cast<Standard_Real (gp_Vec::*)() const>(&gp_Vec::Z),
R"#(For this vector, returns its Z coordinate.)#"
)
.def("IsEqual",
(Standard_Boolean (gp_Vec::*)( const gp_Vec & , const Standard_Real , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Vec::*)( const gp_Vec & , const Standard_Real , const Standard_Real ) const>(&gp_Vec::IsEqual),
R"#(Returns True if the two vectors have the same magnitude value and the same direction. The precision values are theLinearTolerance for the magnitude and theAngularTolerance for the direction.)#" , py::arg("theOther"), py::arg("theLinearTolerance"), py::arg("theAngularTolerance")
)
.def("IsNormal",
(Standard_Boolean (gp_Vec::*)( const gp_Vec & , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Vec::*)( const gp_Vec & , const Standard_Real ) const>(&gp_Vec::IsNormal),
R"#(Returns True if abs(<me>.Angle(theOther) - PI/2.) <= theAngularTolerance Raises VectorWithNullMagnitude if <me>.Magnitude() <= Resolution or theOther.Magnitude() <= Resolution from gp)#" , py::arg("theOther"), py::arg("theAngularTolerance")
)
.def("IsOpposite",
(Standard_Boolean (gp_Vec::*)( const gp_Vec & , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Vec::*)( const gp_Vec & , const Standard_Real ) const>(&gp_Vec::IsOpposite),
R"#(Returns True if PI - <me>.Angle(theOther) <= theAngularTolerance Raises VectorWithNullMagnitude if <me>.Magnitude() <= Resolution or Other.Magnitude() <= Resolution from gp)#" , py::arg("theOther"), py::arg("theAngularTolerance")
)
.def("IsParallel",
(Standard_Boolean (gp_Vec::*)( const gp_Vec & , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Vec::*)( const gp_Vec & , const Standard_Real ) const>(&gp_Vec::IsParallel),
R"#(Returns True if Angle(<me>, theOther) <= theAngularTolerance or PI - Angle(<me>, theOther) <= theAngularTolerance This definition means that two parallel vectors cannot define a plane but two vectors with opposite directions are considered as parallel. Raises VectorWithNullMagnitude if <me>.Magnitude() <= Resolution or Other.Magnitude() <= Resolution from gp)#" , py::arg("theOther"), py::arg("theAngularTolerance")
)
.def("Angle",
(Standard_Real (gp_Vec::*)( const gp_Vec & ) const) static_cast<Standard_Real (gp_Vec::*)( const gp_Vec & ) const>(&gp_Vec::Angle),
R"#(Computes the angular value between <me> and <theOther> Returns the angle value between 0 and PI in radian. Raises VectorWithNullMagnitude if <me>.Magnitude() <= Resolution from gp or theOther.Magnitude() <= Resolution because the angular value is indefinite if one of the vectors has a null magnitude.)#" , py::arg("theOther")
)
.def("AngleWithRef",
(Standard_Real (gp_Vec::*)( const gp_Vec & , const gp_Vec & ) const) static_cast<Standard_Real (gp_Vec::*)( const gp_Vec & , const gp_Vec & ) const>(&gp_Vec::AngleWithRef),
R"#(Computes the angle, in radians, between this vector and vector theOther. The result is a value between -Pi and Pi. For this, theVRef defines the positive sense of rotation: the angular value is positive, if the cross product this ^ theOther has the same orientation as theVRef relative to the plane defined by the vectors this and theOther. Otherwise, the angular value is negative. Exceptions gp_VectorWithNullMagnitude if the magnitude of this vector, the vector theOther, or the vector theVRef is less than or equal to gp::Resolution(). Standard_DomainError if this vector, the vector theOther, and the vector theVRef are coplanar, unless this vector and the vector theOther are parallel.)#" , py::arg("theOther"), py::arg("theVRef")
)
.def("Magnitude",
(Standard_Real (gp_Vec::*)() const) static_cast<Standard_Real (gp_Vec::*)() const>(&gp_Vec::Magnitude),
R"#(Computes the magnitude of this vector.)#"
)
.def("SquareMagnitude",
(Standard_Real (gp_Vec::*)() const) static_cast<Standard_Real (gp_Vec::*)() const>(&gp_Vec::SquareMagnitude),
R"#(Computes the square magnitude of this vector.)#"
)
.def("Add",
(void (gp_Vec::*)( const gp_Vec & ) ) static_cast<void (gp_Vec::*)( const gp_Vec & ) >(&gp_Vec::Add),
R"#(Adds two vectors)#" , py::arg("theOther")
)
.def("Added",
(gp_Vec (gp_Vec::*)( const gp_Vec & ) const) static_cast<gp_Vec (gp_Vec::*)( const gp_Vec & ) const>(&gp_Vec::Added),
R"#(Adds two vectors)#" , py::arg("theOther")
)
.def("Subtract",
(void (gp_Vec::*)( const gp_Vec & ) ) static_cast<void (gp_Vec::*)( const gp_Vec & ) >(&gp_Vec::Subtract),
R"#(Subtracts two vectors)#" , py::arg("theRight")
)
.def("Subtracted",
(gp_Vec (gp_Vec::*)( const gp_Vec & ) const) static_cast<gp_Vec (gp_Vec::*)( const gp_Vec & ) const>(&gp_Vec::Subtracted),
R"#(Subtracts two vectors)#" , py::arg("theRight")
)
.def("Multiply",
(void (gp_Vec::*)( const Standard_Real ) ) static_cast<void (gp_Vec::*)( const Standard_Real ) >(&gp_Vec::Multiply),
R"#(Multiplies a vector by a scalar)#" , py::arg("theScalar")
)
.def("Multiplied",
(gp_Vec (gp_Vec::*)( const Standard_Real ) const) static_cast<gp_Vec (gp_Vec::*)( const Standard_Real ) const>(&gp_Vec::Multiplied),
R"#(Multiplies a vector by a scalar)#" , py::arg("theScalar")
)
.def("Divide",
(void (gp_Vec::*)( const Standard_Real ) ) static_cast<void (gp_Vec::*)( const Standard_Real ) >(&gp_Vec::Divide),
R"#(Divides a vector by a scalar)#" , py::arg("theScalar")
)
.def("Divided",
(gp_Vec (gp_Vec::*)( const Standard_Real ) const) static_cast<gp_Vec (gp_Vec::*)( const Standard_Real ) const>(&gp_Vec::Divided),
R"#(Divides a vector by a scalar)#" , py::arg("theScalar")
)
.def("Cross",
(void (gp_Vec::*)( const gp_Vec & ) ) static_cast<void (gp_Vec::*)( const gp_Vec & ) >(&gp_Vec::Cross),
R"#(computes the cross product between two vectors)#" , py::arg("theRight")
)
.def("Crossed",
(gp_Vec (gp_Vec::*)( const gp_Vec & ) const) static_cast<gp_Vec (gp_Vec::*)( const gp_Vec & ) const>(&gp_Vec::Crossed),
R"#(computes the cross product between two vectors)#" , py::arg("theRight")
)
.def("CrossMagnitude",
(Standard_Real (gp_Vec::*)( const gp_Vec & ) const) static_cast<Standard_Real (gp_Vec::*)( const gp_Vec & ) const>(&gp_Vec::CrossMagnitude),
R"#(Computes the magnitude of the cross product between <me> and theRight. Returns || <me> ^ theRight ||)#" , py::arg("theRight")
)
.def("CrossSquareMagnitude",
(Standard_Real (gp_Vec::*)( const gp_Vec & ) const) static_cast<Standard_Real (gp_Vec::*)( const gp_Vec & ) const>(&gp_Vec::CrossSquareMagnitude),
R"#(Computes the square magnitude of the cross product between <me> and theRight. Returns || <me> ^ theRight ||**2)#" , py::arg("theRight")
)
.def("CrossCross",
(void (gp_Vec::*)( const gp_Vec & , const gp_Vec & ) ) static_cast<void (gp_Vec::*)( const gp_Vec & , const gp_Vec & ) >(&gp_Vec::CrossCross),
R"#(Computes the triple vector product. <me> ^= (theV1 ^ theV2))#" , py::arg("theV1"), py::arg("theV2")
)
.def("CrossCrossed",
(gp_Vec (gp_Vec::*)( const gp_Vec & , const gp_Vec & ) const) static_cast<gp_Vec (gp_Vec::*)( const gp_Vec & , const gp_Vec & ) const>(&gp_Vec::CrossCrossed),
R"#(Computes the triple vector product. <me> ^ (theV1 ^ theV2))#" , py::arg("theV1"), py::arg("theV2")
)
.def("Dot",
(Standard_Real (gp_Vec::*)( const gp_Vec & ) const) static_cast<Standard_Real (gp_Vec::*)( const gp_Vec & ) const>(&gp_Vec::Dot),
R"#(computes the scalar product)#" , py::arg("theOther")
)
.def("DotCross",
(Standard_Real (gp_Vec::*)( const gp_Vec & , const gp_Vec & ) const) static_cast<Standard_Real (gp_Vec::*)( const gp_Vec & , const gp_Vec & ) const>(&gp_Vec::DotCross),
R"#(Computes the triple scalar product <me> * (theV1 ^ theV2).)#" , py::arg("theV1"), py::arg("theV2")
)
.def("Normalize",
(void (gp_Vec::*)() ) static_cast<void (gp_Vec::*)() >(&gp_Vec::Normalize),
R"#(normalizes a vector Raises an exception if the magnitude of the vector is lower or equal to Resolution from gp.)#"
)
.def("Normalized",
(gp_Vec (gp_Vec::*)() const) static_cast<gp_Vec (gp_Vec::*)() const>(&gp_Vec::Normalized),
R"#(normalizes a vector Raises an exception if the magnitude of the vector is lower or equal to Resolution from gp.)#"
)
.def("Reverse",
(void (gp_Vec::*)() ) static_cast<void (gp_Vec::*)() >(&gp_Vec::Reverse),
R"#(Reverses the direction of a vector)#"
)
.def("Reversed",
(gp_Vec (gp_Vec::*)() const) static_cast<gp_Vec (gp_Vec::*)() const>(&gp_Vec::Reversed),
R"#(Reverses the direction of a vector)#"
)
.def("SetLinearForm",
(void (gp_Vec::*)( const Standard_Real , const gp_Vec & , const Standard_Real , const gp_Vec & , const Standard_Real , const gp_Vec & , const gp_Vec & ) ) static_cast<void (gp_Vec::*)( const Standard_Real , const gp_Vec & , const Standard_Real , const gp_Vec & , const Standard_Real , const gp_Vec & , const gp_Vec & ) >(&gp_Vec::SetLinearForm),
R"#(<me> is set to the following linear form : theA1 * theV1 + theA2 * theV2 + theA3 * theV3 + theV4)#" , py::arg("theA1"), py::arg("theV1"), py::arg("theA2"), py::arg("theV2"), py::arg("theA3"), py::arg("theV3"), py::arg("theV4")
)
.def("SetLinearForm",
(void (gp_Vec::*)( const Standard_Real , const gp_Vec & , const Standard_Real , const gp_Vec & , const Standard_Real , const gp_Vec & ) ) static_cast<void (gp_Vec::*)( const Standard_Real , const gp_Vec & , const Standard_Real , const gp_Vec & , const Standard_Real , const gp_Vec & ) >(&gp_Vec::SetLinearForm),
R"#(<me> is set to the following linear form : theA1 * theV1 + theA2 * theV2 + theA3 * theV3)#" , py::arg("theA1"), py::arg("theV1"), py::arg("theA2"), py::arg("theV2"), py::arg("theA3"), py::arg("theV3")
)
.def("SetLinearForm",
(void (gp_Vec::*)( const Standard_Real , const gp_Vec & , const Standard_Real , const gp_Vec & , const gp_Vec & ) ) static_cast<void (gp_Vec::*)( const Standard_Real , const gp_Vec & , const Standard_Real , const gp_Vec & , const gp_Vec & ) >(&gp_Vec::SetLinearForm),
R"#(<me> is set to the following linear form : theA1 * theV1 + theA2 * theV2 + theV3)#" , py::arg("theA1"), py::arg("theV1"), py::arg("theA2"), py::arg("theV2"), py::arg("theV3")
)
.def("SetLinearForm",
(void (gp_Vec::*)( const Standard_Real , const gp_Vec & , const Standard_Real , const gp_Vec & ) ) static_cast<void (gp_Vec::*)( const Standard_Real , const gp_Vec & , const Standard_Real , const gp_Vec & ) >(&gp_Vec::SetLinearForm),
R"#(<me> is set to the following linear form : theA1 * theV1 + theA2 * theV2)#" , py::arg("theA1"), py::arg("theV1"), py::arg("theA2"), py::arg("theV2")
)
.def("SetLinearForm",
(void (gp_Vec::*)( const Standard_Real , const gp_Vec & , const gp_Vec & ) ) static_cast<void (gp_Vec::*)( const Standard_Real , const gp_Vec & , const gp_Vec & ) >(&gp_Vec::SetLinearForm),
R"#(<me> is set to the following linear form : theA1 * theV1 + theV2)#" , py::arg("theA1"), py::arg("theV1"), py::arg("theV2")
)
.def("SetLinearForm",
(void (gp_Vec::*)( const gp_Vec & , const gp_Vec & ) ) static_cast<void (gp_Vec::*)( const gp_Vec & , const gp_Vec & ) >(&gp_Vec::SetLinearForm),
R"#(<me> is set to the following linear form : theV1 + theV2)#" , py::arg("theV1"), py::arg("theV2")
)
.def("Mirror",
(void (gp_Vec::*)( const gp_Vec & ) ) static_cast<void (gp_Vec::*)( const gp_Vec & ) >(&gp_Vec::Mirror),
R"#(None)#" , py::arg("theV")
)
.def("Mirrored",
(gp_Vec (gp_Vec::*)( const gp_Vec & ) const) static_cast<gp_Vec (gp_Vec::*)( const gp_Vec & ) const>(&gp_Vec::Mirrored),
R"#(Performs the symmetrical transformation of a vector with respect to the vector theV which is the center of the symmetry.)#" , py::arg("theV")
)
.def("Mirror",
(void (gp_Vec::*)( const gp_Ax1 & ) ) static_cast<void (gp_Vec::*)( const gp_Ax1 & ) >(&gp_Vec::Mirror),
R"#(None)#" , py::arg("theA1")
)
.def("Mirrored",
(gp_Vec (gp_Vec::*)( const gp_Ax1 & ) const) static_cast<gp_Vec (gp_Vec::*)( const gp_Ax1 & ) const>(&gp_Vec::Mirrored),
R"#(Performs the symmetrical transformation of a vector with respect to an axis placement which is the axis of the symmetry.)#" , py::arg("theA1")
)
.def("Mirror",
(void (gp_Vec::*)( const gp_Ax2 & ) ) static_cast<void (gp_Vec::*)( const gp_Ax2 & ) >(&gp_Vec::Mirror),
R"#(None)#" , py::arg("theA2")
)
.def("Mirrored",
(gp_Vec (gp_Vec::*)( const gp_Ax2 & ) const) static_cast<gp_Vec (gp_Vec::*)( const gp_Ax2 & ) const>(&gp_Vec::Mirrored),
R"#(Performs the symmetrical transformation of a vector with respect to a plane. The axis placement theA2 locates the plane of the symmetry : (Location, XDirection, YDirection).)#" , py::arg("theA2")
)
.def("Rotate",
(void (gp_Vec::*)( const gp_Ax1 & , const Standard_Real ) ) static_cast<void (gp_Vec::*)( const gp_Ax1 & , const Standard_Real ) >(&gp_Vec::Rotate),
R"#(None)#" , py::arg("theA1"), py::arg("theAng")
)
.def("Rotated",
(gp_Vec (gp_Vec::*)( const gp_Ax1 & , const Standard_Real ) const) static_cast<gp_Vec (gp_Vec::*)( const gp_Ax1 & , const Standard_Real ) const>(&gp_Vec::Rotated),
R"#(Rotates a vector. theA1 is the axis of the rotation. theAng is the angular value of the rotation in radians.)#" , py::arg("theA1"), py::arg("theAng")
)
.def("Scale",
(void (gp_Vec::*)( const Standard_Real ) ) static_cast<void (gp_Vec::*)( const Standard_Real ) >(&gp_Vec::Scale),
R"#(None)#" , py::arg("theS")
)
.def("Scaled",
(gp_Vec (gp_Vec::*)( const Standard_Real ) const) static_cast<gp_Vec (gp_Vec::*)( const Standard_Real ) const>(&gp_Vec::Scaled),
R"#(Scales a vector. theS is the scaling value.)#" , py::arg("theS")
)
.def("Transform",
(void (gp_Vec::*)( const gp_Trsf & ) ) static_cast<void (gp_Vec::*)( const gp_Trsf & ) >(&gp_Vec::Transform),
R"#(Transforms a vector with the transformation theT.)#" , py::arg("theT")
)
.def("Transformed",
(gp_Vec (gp_Vec::*)( const gp_Trsf & ) const) static_cast<gp_Vec (gp_Vec::*)( const gp_Trsf & ) const>(&gp_Vec::Transformed),
R"#(Transforms a vector with the transformation theT.)#" , py::arg("theT")
)
.def("DumpJson",
(void (gp_Vec::*)( std::ostream & , Standard_Integer ) const) static_cast<void (gp_Vec::*)( std::ostream & , Standard_Integer ) const>(&gp_Vec::DumpJson),
R"#(Dumps the content of me into the stream)#" , py::arg("theOStream"), py::arg("theDepth")=static_cast<Standard_Integer>(- 1)
)
.def("IsNormal",
(Standard_Boolean (gp_Vec::*)( const gp_Vec & , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Vec::*)( const gp_Vec & , const Standard_Real ) const>(&gp_Vec::IsNormal),
R"#(Returns True if abs(<me>.Angle(theOther) - PI/2.) <= theAngularTolerance Raises VectorWithNullMagnitude if <me>.Magnitude() <= Resolution or theOther.Magnitude() <= Resolution from gp)#" , py::arg("theOther"), py::arg("theAngularTolerance")
)
.def("Angle",
(Standard_Real (gp_Vec::*)( const gp_Vec & ) const) static_cast<Standard_Real (gp_Vec::*)( const gp_Vec & ) const>(&gp_Vec::Angle),
R"#(Computes the angular value between <me> and <theOther> Returns the angle value between 0 and PI in radian. Raises VectorWithNullMagnitude if <me>.Magnitude() <= Resolution from gp or theOther.Magnitude() <= Resolution because the angular value is indefinite if one of the vectors has a null magnitude.)#" , py::arg("theOther")
)
.def("AngleWithRef",
(Standard_Real (gp_Vec::*)( const gp_Vec & , const gp_Vec & ) const) static_cast<Standard_Real (gp_Vec::*)( const gp_Vec & , const gp_Vec & ) const>(&gp_Vec::AngleWithRef),
R"#(Computes the angle, in radians, between this vector and vector theOther. The result is a value between -Pi and Pi. For this, theVRef defines the positive sense of rotation: the angular value is positive, if the cross product this ^ theOther has the same orientation as theVRef relative to the plane defined by the vectors this and theOther. Otherwise, the angular value is negative. Exceptions gp_VectorWithNullMagnitude if the magnitude of this vector, the vector theOther, or the vector theVRef is less than or equal to gp::Resolution(). Standard_DomainError if this vector, the vector theOther, and the vector theVRef are coplanar, unless this vector and the vector theOther are parallel.)#" , py::arg("theOther"), py::arg("theVRef")
)
.def("Normalized",
(gp_Vec (gp_Vec::*)() const) static_cast<gp_Vec (gp_Vec::*)() const>(&gp_Vec::Normalized),
R"#(normalizes a vector Raises an exception if the magnitude of the vector is lower or equal to Resolution from gp.)#"
)
.def("Rotate",
(void (gp_Vec::*)( const gp_Ax1 & , const Standard_Real ) ) static_cast<void (gp_Vec::*)( const gp_Ax1 & , const Standard_Real ) >(&gp_Vec::Rotate),
R"#(None)#" , py::arg("theA1"), py::arg("theAng")
)
// methods using call by reference i.s.o. return
.def("Coord",
[]( gp_Vec &self ){
Standard_Real theXv;
Standard_Real theYv;
Standard_Real theZv;
self.Coord(theXv,theYv,theZv);
return std::make_tuple(theXv,theYv,theZv); },
R"#(For this vector returns its three coordinates theXv, theYv, and theZv inline)#"
)
// static methods
// static methods using call by reference i.s.o. return
// operators
.def("__iadd__",
(void (gp_Vec::*)( const gp_Vec & ) ) static_cast<void (gp_Vec::*)( const gp_Vec & ) >(&gp_Vec::operator+=),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
.def("__add__",
(gp_Vec (gp_Vec::*)( const gp_Vec & ) const) static_cast<gp_Vec (gp_Vec::*)( const gp_Vec & ) const>(&gp_Vec::operator+),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
.def("__isub__",
(void (gp_Vec::*)( const gp_Vec & ) ) static_cast<void (gp_Vec::*)( const gp_Vec & ) >(&gp_Vec::operator-=),
py::is_operator(),
R"#(None)#" , py::arg("theRight")
)
.def("__sub__",
(gp_Vec (gp_Vec::*)( const gp_Vec & ) const) static_cast<gp_Vec (gp_Vec::*)( const gp_Vec & ) const>(&gp_Vec::operator-),
py::is_operator(),
R"#(None)#" , py::arg("theRight")
)
.def("__imul__",
(void (gp_Vec::*)( const Standard_Real ) ) static_cast<void (gp_Vec::*)( const Standard_Real ) >(&gp_Vec::operator*=),
py::is_operator(),
R"#(None)#" , py::arg("theScalar")
)
.def("__mul__",
(gp_Vec (gp_Vec::*)( const Standard_Real ) const) static_cast<gp_Vec (gp_Vec::*)( const Standard_Real ) const>(&gp_Vec::operator*),
py::is_operator(),
R"#(None)#" , py::arg("theScalar")
)
.def("__rmul__",
(gp_Vec (gp_Vec::*)( const Standard_Real ) const) static_cast<gp_Vec (gp_Vec::*)( const Standard_Real ) const>(&gp_Vec::operator*),
py::is_operator(),
R"#(None)#" , py::arg("theScalar")
)
.def("__itruediv__",
(void (gp_Vec::*)( const Standard_Real ) ) static_cast<void (gp_Vec::*)( const Standard_Real ) >(&gp_Vec::operator/=),
py::is_operator(),
R"#(None)#" , py::arg("theScalar")
)
.def("__truediv__",
(gp_Vec (gp_Vec::*)( const Standard_Real ) const) static_cast<gp_Vec (gp_Vec::*)( const Standard_Real ) const>(&gp_Vec::operator/),
py::is_operator(),
R"#(None)#" , py::arg("theScalar")
)
.def("__ipow__",
(void (gp_Vec::*)( const gp_Vec & ) ) static_cast<void (gp_Vec::*)( const gp_Vec & ) >(&gp_Vec::operator^=),
py::is_operator(),
R"#(None)#" , py::arg("theRight")
)
.def("__pow__",
(gp_Vec (gp_Vec::*)( const gp_Vec & ) const) static_cast<gp_Vec (gp_Vec::*)( const gp_Vec & ) const>(&gp_Vec::operator^),
py::is_operator(),
R"#(None)#" , py::arg("theRight")
)
.def("__mul__",
(Standard_Real (gp_Vec::*)( const gp_Vec & ) const) static_cast<Standard_Real (gp_Vec::*)( const gp_Vec & ) const>(&gp_Vec::operator*),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
.def("__rmul__",
(Standard_Real (gp_Vec::*)( const gp_Vec & ) const) static_cast<Standard_Real (gp_Vec::*)( const gp_Vec & ) const>(&gp_Vec::operator*),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
.def("__sub__",
(gp_Vec (gp_Vec::*)() const) static_cast<gp_Vec (gp_Vec::*)() const>(&gp_Vec::operator-),
py::is_operator(),
R"#(None)#"
)
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
.def("XYZ",
(const gp_XYZ & (gp_Vec::*)() const) static_cast<const gp_XYZ & (gp_Vec::*)() const>(&gp_Vec::XYZ),
R"#(For this vector, returns - its three coordinates as a number triple)#"
)
;
// Class gp_Vec2d from ./opencascade/gp_Vec2d.hxx
klass = m.attr("gp_Vec2d");
// nested enums
static_cast<py::class_<gp_Vec2d , shared_ptr<gp_Vec2d> >>(klass)
// constructors
.def(py::init< >() )
.def(py::init< const gp_Dir2d & >() , py::arg("theV") )
.def(py::init< const gp_XY & >() , py::arg("theCoord") )
.def(py::init< const Standard_Real,const Standard_Real >() , py::arg("theXv"), py::arg("theYv") )
.def(py::init< const gp_Pnt2d &,const gp_Pnt2d & >() , py::arg("theP1"), py::arg("theP2") )
// custom constructors
// methods
.def("SetCoord",
(void (gp_Vec2d::*)( const Standard_Integer , const Standard_Real ) ) static_cast<void (gp_Vec2d::*)( const Standard_Integer , const Standard_Real ) >(&gp_Vec2d::SetCoord),
R"#(Changes the coordinate of range theIndex theIndex = 1 => X is modified theIndex = 2 => Y is modified Raises OutOfRange if theIndex != {1, 2}.)#" , py::arg("theIndex"), py::arg("theXi")
)
.def("SetCoord",
(void (gp_Vec2d::*)( const Standard_Real , const Standard_Real ) ) static_cast<void (gp_Vec2d::*)( const Standard_Real , const Standard_Real ) >(&gp_Vec2d::SetCoord),
R"#(For this vector, assigns the values theXv and theYv to its two coordinates)#" , py::arg("theXv"), py::arg("theYv")
)
.def("SetX",
(void (gp_Vec2d::*)( const Standard_Real ) ) static_cast<void (gp_Vec2d::*)( const Standard_Real ) >(&gp_Vec2d::SetX),
R"#(Assigns the given value to the X coordinate of this vector.)#" , py::arg("theX")
)
.def("SetY",
(void (gp_Vec2d::*)( const Standard_Real ) ) static_cast<void (gp_Vec2d::*)( const Standard_Real ) >(&gp_Vec2d::SetY),
R"#(Assigns the given value to the Y coordinate of this vector.)#" , py::arg("theY")
)
.def("SetXY",
(void (gp_Vec2d::*)( const gp_XY & ) ) static_cast<void (gp_Vec2d::*)( const gp_XY & ) >(&gp_Vec2d::SetXY),
R"#(Assigns the two coordinates of theCoord to this vector.)#" , py::arg("theCoord")
)
.def("Coord",
(Standard_Real (gp_Vec2d::*)( const Standard_Integer ) const) static_cast<Standard_Real (gp_Vec2d::*)( const Standard_Integer ) const>(&gp_Vec2d::Coord),
R"#(Returns the coordinate of range theIndex : theIndex = 1 => X is returned theIndex = 2 => Y is returned Raised if theIndex != {1, 2}.)#" , py::arg("theIndex")
)
.def("X",
(Standard_Real (gp_Vec2d::*)() const) static_cast<Standard_Real (gp_Vec2d::*)() const>(&gp_Vec2d::X),
R"#(For this vector, returns its X coordinate.)#"
)
.def("Y",
(Standard_Real (gp_Vec2d::*)() const) static_cast<Standard_Real (gp_Vec2d::*)() const>(&gp_Vec2d::Y),
R"#(For this vector, returns its Y coordinate.)#"
)
.def("IsEqual",
(Standard_Boolean (gp_Vec2d::*)( const gp_Vec2d & , const Standard_Real , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Vec2d::*)( const gp_Vec2d & , const Standard_Real , const Standard_Real ) const>(&gp_Vec2d::IsEqual),
R"#(Returns True if the two vectors have the same magnitude value and the same direction. The precision values are theLinearTolerance for the magnitude and theAngularTolerance for the direction.)#" , py::arg("theOther"), py::arg("theLinearTolerance"), py::arg("theAngularTolerance")
)
.def("IsNormal",
(Standard_Boolean (gp_Vec2d::*)( const gp_Vec2d & , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Vec2d::*)( const gp_Vec2d & , const Standard_Real ) const>(&gp_Vec2d::IsNormal),
R"#(Returns True if abs(Abs(<me>.Angle(theOther)) - PI/2.) <= theAngularTolerance Raises VectorWithNullMagnitude if <me>.Magnitude() <= Resolution or theOther.Magnitude() <= Resolution from gp.)#" , py::arg("theOther"), py::arg("theAngularTolerance")
)
.def("IsOpposite",
(Standard_Boolean (gp_Vec2d::*)( const gp_Vec2d & , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Vec2d::*)( const gp_Vec2d & , const Standard_Real ) const>(&gp_Vec2d::IsOpposite),
R"#(Returns True if PI - Abs(<me>.Angle(theOther)) <= theAngularTolerance Raises VectorWithNullMagnitude if <me>.Magnitude() <= Resolution or theOther.Magnitude() <= Resolution from gp.)#" , py::arg("theOther"), py::arg("theAngularTolerance")
)
.def("IsParallel",
(Standard_Boolean (gp_Vec2d::*)( const gp_Vec2d & , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Vec2d::*)( const gp_Vec2d & , const Standard_Real ) const>(&gp_Vec2d::IsParallel),
R"#(Returns true if Abs(Angle(<me>, theOther)) <= theAngularTolerance or PI - Abs(Angle(<me>, theOther)) <= theAngularTolerance Two vectors with opposite directions are considered as parallel. Raises VectorWithNullMagnitude if <me>.Magnitude() <= Resolution or theOther.Magnitude() <= Resolution from gp)#" , py::arg("theOther"), py::arg("theAngularTolerance")
)
.def("Angle",
(Standard_Real (gp_Vec2d::*)( const gp_Vec2d & ) const) static_cast<Standard_Real (gp_Vec2d::*)( const gp_Vec2d & ) const>(&gp_Vec2d::Angle),
R"#(Computes the angular value between <me> and <theOther> returns the angle value between -PI and PI in radian. The orientation is from <me> to theOther. The positive sense is the trigonometric sense. Raises VectorWithNullMagnitude if <me>.Magnitude() <= Resolution from gp or theOther.Magnitude() <= Resolution because the angular value is indefinite if one of the vectors has a null magnitude.)#" , py::arg("theOther")
)
.def("Magnitude",
(Standard_Real (gp_Vec2d::*)() const) static_cast<Standard_Real (gp_Vec2d::*)() const>(&gp_Vec2d::Magnitude),
R"#(Computes the magnitude of this vector.)#"
)
.def("SquareMagnitude",
(Standard_Real (gp_Vec2d::*)() const) static_cast<Standard_Real (gp_Vec2d::*)() const>(&gp_Vec2d::SquareMagnitude),
R"#(Computes the square magnitude of this vector.)#"
)
.def("Add",
(void (gp_Vec2d::*)( const gp_Vec2d & ) ) static_cast<void (gp_Vec2d::*)( const gp_Vec2d & ) >(&gp_Vec2d::Add),
R"#(None)#" , py::arg("theOther")
)
.def("Added",
(gp_Vec2d (gp_Vec2d::*)( const gp_Vec2d & ) const) static_cast<gp_Vec2d (gp_Vec2d::*)( const gp_Vec2d & ) const>(&gp_Vec2d::Added),
R"#(Adds two vectors)#" , py::arg("theOther")
)
.def("Crossed",
(Standard_Real (gp_Vec2d::*)( const gp_Vec2d & ) const) static_cast<Standard_Real (gp_Vec2d::*)( const gp_Vec2d & ) const>(&gp_Vec2d::Crossed),
R"#(Computes the crossing product between two vectors)#" , py::arg("theRight")
)
.def("CrossMagnitude",
(Standard_Real (gp_Vec2d::*)( const gp_Vec2d & ) const) static_cast<Standard_Real (gp_Vec2d::*)( const gp_Vec2d & ) const>(&gp_Vec2d::CrossMagnitude),
R"#(Computes the magnitude of the cross product between <me> and theRight. Returns || <me> ^ theRight ||)#" , py::arg("theRight")
)
.def("CrossSquareMagnitude",
(Standard_Real (gp_Vec2d::*)( const gp_Vec2d & ) const) static_cast<Standard_Real (gp_Vec2d::*)( const gp_Vec2d & ) const>(&gp_Vec2d::CrossSquareMagnitude),
R"#(Computes the square magnitude of the cross product between <me> and theRight. Returns || <me> ^ theRight ||**2)#" , py::arg("theRight")
)
.def("Divide",
(void (gp_Vec2d::*)( const Standard_Real ) ) static_cast<void (gp_Vec2d::*)( const Standard_Real ) >(&gp_Vec2d::Divide),
R"#(None)#" , py::arg("theScalar")
)
.def("Divided",
(gp_Vec2d (gp_Vec2d::*)( const Standard_Real ) const) static_cast<gp_Vec2d (gp_Vec2d::*)( const Standard_Real ) const>(&gp_Vec2d::Divided),
R"#(divides a vector by a scalar)#" , py::arg("theScalar")
)
.def("Dot",
(Standard_Real (gp_Vec2d::*)( const gp_Vec2d & ) const) static_cast<Standard_Real (gp_Vec2d::*)( const gp_Vec2d & ) const>(&gp_Vec2d::Dot),
R"#(Computes the scalar product)#" , py::arg("theOther")
)
.def("GetNormal",
(gp_Vec2d (gp_Vec2d::*)() const) static_cast<gp_Vec2d (gp_Vec2d::*)() const>(&gp_Vec2d::GetNormal),
R"#(None)#"
)
.def("Multiply",
(void (gp_Vec2d::*)( const Standard_Real ) ) static_cast<void (gp_Vec2d::*)( const Standard_Real ) >(&gp_Vec2d::Multiply),
R"#(None)#" , py::arg("theScalar")
)
.def("Multiplied",
(gp_Vec2d (gp_Vec2d::*)( const Standard_Real ) const) static_cast<gp_Vec2d (gp_Vec2d::*)( const Standard_Real ) const>(&gp_Vec2d::Multiplied),
R"#(Normalizes a vector Raises an exception if the magnitude of the vector is lower or equal to Resolution from package gp.)#" , py::arg("theScalar")
)
.def("Normalize",
(void (gp_Vec2d::*)() ) static_cast<void (gp_Vec2d::*)() >(&gp_Vec2d::Normalize),
R"#(None)#"
)
.def("Normalized",
(gp_Vec2d (gp_Vec2d::*)() const) static_cast<gp_Vec2d (gp_Vec2d::*)() const>(&gp_Vec2d::Normalized),
R"#(Normalizes a vector Raises an exception if the magnitude of the vector is lower or equal to Resolution from package gp. Reverses the direction of a vector)#"
)
.def("Reverse",
(void (gp_Vec2d::*)() ) static_cast<void (gp_Vec2d::*)() >(&gp_Vec2d::Reverse),
R"#(None)#"
)
.def("Reversed",
(gp_Vec2d (gp_Vec2d::*)() const) static_cast<gp_Vec2d (gp_Vec2d::*)() const>(&gp_Vec2d::Reversed),
R"#(Reverses the direction of a vector)#"
)
.def("Subtract",
(void (gp_Vec2d::*)( const gp_Vec2d & ) ) static_cast<void (gp_Vec2d::*)( const gp_Vec2d & ) >(&gp_Vec2d::Subtract),
R"#(Subtracts two vectors)#" , py::arg("theRight")
)
.def("Subtracted",
(gp_Vec2d (gp_Vec2d::*)( const gp_Vec2d & ) const) static_cast<gp_Vec2d (gp_Vec2d::*)( const gp_Vec2d & ) const>(&gp_Vec2d::Subtracted),
R"#(Subtracts two vectors)#" , py::arg("theRight")
)
.def("SetLinearForm",
(void (gp_Vec2d::*)( const Standard_Real , const gp_Vec2d & , const Standard_Real , const gp_Vec2d & , const gp_Vec2d & ) ) static_cast<void (gp_Vec2d::*)( const Standard_Real , const gp_Vec2d & , const Standard_Real , const gp_Vec2d & , const gp_Vec2d & ) >(&gp_Vec2d::SetLinearForm),
R"#(<me> is set to the following linear form : theA1 * theV1 + theA2 * theV2 + theV3)#" , py::arg("theA1"), py::arg("theV1"), py::arg("theA2"), py::arg("theV2"), py::arg("theV3")
)
.def("SetLinearForm",
(void (gp_Vec2d::*)( const Standard_Real , const gp_Vec2d & , const Standard_Real , const gp_Vec2d & ) ) static_cast<void (gp_Vec2d::*)( const Standard_Real , const gp_Vec2d & , const Standard_Real , const gp_Vec2d & ) >(&gp_Vec2d::SetLinearForm),
R"#(<me> is set to the following linear form : theA1 * theV1 + theA2 * theV2)#" , py::arg("theA1"), py::arg("theV1"), py::arg("theA2"), py::arg("theV2")
)
.def("SetLinearForm",
(void (gp_Vec2d::*)( const Standard_Real , const gp_Vec2d & , const gp_Vec2d & ) ) static_cast<void (gp_Vec2d::*)( const Standard_Real , const gp_Vec2d & , const gp_Vec2d & ) >(&gp_Vec2d::SetLinearForm),
R"#(<me> is set to the following linear form : theA1 * theV1 + theV2)#" , py::arg("theA1"), py::arg("theV1"), py::arg("theV2")
)
.def("SetLinearForm",
(void (gp_Vec2d::*)( const gp_Vec2d & , const gp_Vec2d & ) ) static_cast<void (gp_Vec2d::*)( const gp_Vec2d & , const gp_Vec2d & ) >(&gp_Vec2d::SetLinearForm),
R"#(<me> is set to the following linear form : theV1 + theV2)#" , py::arg("theV1"), py::arg("theV2")
)
.def("Mirror",
(void (gp_Vec2d::*)( const gp_Vec2d & ) ) static_cast<void (gp_Vec2d::*)( const gp_Vec2d & ) >(&gp_Vec2d::Mirror),
R"#(Performs the symmetrical transformation of a vector with respect to the vector theV which is the center of the symmetry.)#" , py::arg("theV")
)
.def("Mirrored",
(gp_Vec2d (gp_Vec2d::*)( const gp_Vec2d & ) const) static_cast<gp_Vec2d (gp_Vec2d::*)( const gp_Vec2d & ) const>(&gp_Vec2d::Mirrored),
R"#(Performs the symmetrical transformation of a vector with respect to the vector theV which is the center of the symmetry.)#" , py::arg("theV")
)
.def("Mirror",
(void (gp_Vec2d::*)( const gp_Ax2d & ) ) static_cast<void (gp_Vec2d::*)( const gp_Ax2d & ) >(&gp_Vec2d::Mirror),
R"#(Performs the symmetrical transformation of a vector with respect to an axis placement which is the axis of the symmetry.)#" , py::arg("theA1")
)
.def("Mirrored",
(gp_Vec2d (gp_Vec2d::*)( const gp_Ax2d & ) const) static_cast<gp_Vec2d (gp_Vec2d::*)( const gp_Ax2d & ) const>(&gp_Vec2d::Mirrored),
R"#(Performs the symmetrical transformation of a vector with respect to an axis placement which is the axis of the symmetry.)#" , py::arg("theA1")
)
.def("Rotate",
(void (gp_Vec2d::*)( const Standard_Real ) ) static_cast<void (gp_Vec2d::*)( const Standard_Real ) >(&gp_Vec2d::Rotate),
R"#(None)#" , py::arg("theAng")
)
.def("Rotated",
(gp_Vec2d (gp_Vec2d::*)( const Standard_Real ) const) static_cast<gp_Vec2d (gp_Vec2d::*)( const Standard_Real ) const>(&gp_Vec2d::Rotated),
R"#(Rotates a vector. theAng is the angular value of the rotation in radians.)#" , py::arg("theAng")
)
.def("Scale",
(void (gp_Vec2d::*)( const Standard_Real ) ) static_cast<void (gp_Vec2d::*)( const Standard_Real ) >(&gp_Vec2d::Scale),
R"#(None)#" , py::arg("theS")
)
.def("Scaled",
(gp_Vec2d (gp_Vec2d::*)( const Standard_Real ) const) static_cast<gp_Vec2d (gp_Vec2d::*)( const Standard_Real ) const>(&gp_Vec2d::Scaled),
R"#(Scales a vector. theS is the scaling value.)#" , py::arg("theS")
)
.def("Transform",
(void (gp_Vec2d::*)( const gp_Trsf2d & ) ) static_cast<void (gp_Vec2d::*)( const gp_Trsf2d & ) >(&gp_Vec2d::Transform),
R"#(None)#" , py::arg("theT")
)
.def("Transformed",
(gp_Vec2d (gp_Vec2d::*)( const gp_Trsf2d & ) const) static_cast<gp_Vec2d (gp_Vec2d::*)( const gp_Trsf2d & ) const>(&gp_Vec2d::Transformed),
R"#(Transforms a vector with a Trsf from gp.)#" , py::arg("theT")
)
.def("IsOpposite",
(Standard_Boolean (gp_Vec2d::*)( const gp_Vec2d & , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Vec2d::*)( const gp_Vec2d & , const Standard_Real ) const>(&gp_Vec2d::IsOpposite),
R"#(Returns True if PI - Abs(<me>.Angle(theOther)) <= theAngularTolerance Raises VectorWithNullMagnitude if <me>.Magnitude() <= Resolution or theOther.Magnitude() <= Resolution from gp.)#" , py::arg("theOther"), py::arg("theAngularTolerance")
)
.def("IsParallel",
(Standard_Boolean (gp_Vec2d::*)( const gp_Vec2d & , const Standard_Real ) const) static_cast<Standard_Boolean (gp_Vec2d::*)( const gp_Vec2d & , const Standard_Real ) const>(&gp_Vec2d::IsParallel),
R"#(Returns true if Abs(Angle(<me>, theOther)) <= theAngularTolerance or PI - Abs(Angle(<me>, theOther)) <= theAngularTolerance Two vectors with opposite directions are considered as parallel. Raises VectorWithNullMagnitude if <me>.Magnitude() <= Resolution or theOther.Magnitude() <= Resolution from gp)#" , py::arg("theOther"), py::arg("theAngularTolerance")
)
.def("Normalized",
(gp_Vec2d (gp_Vec2d::*)() const) static_cast<gp_Vec2d (gp_Vec2d::*)() const>(&gp_Vec2d::Normalized),
R"#(Normalizes a vector Raises an exception if the magnitude of the vector is lower or equal to Resolution from package gp. Reverses the direction of a vector)#"
)
.def("Rotate",
(void (gp_Vec2d::*)( const Standard_Real ) ) static_cast<void (gp_Vec2d::*)( const Standard_Real ) >(&gp_Vec2d::Rotate),
R"#(None)#" , py::arg("theAng")
)
// methods using call by reference i.s.o. return
.def("Coord",
[]( gp_Vec2d &self ){
Standard_Real theXv;
Standard_Real theYv;
self.Coord(theXv,theYv);
return std::make_tuple(theXv,theYv); },
R"#(For this vector, returns its two coordinates theXv and theYv)#"
)
// static methods
// static methods using call by reference i.s.o. return
// operators
.def("__iadd__",
(void (gp_Vec2d::*)( const gp_Vec2d & ) ) static_cast<void (gp_Vec2d::*)( const gp_Vec2d & ) >(&gp_Vec2d::operator+=),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
.def("__add__",
(gp_Vec2d (gp_Vec2d::*)( const gp_Vec2d & ) const) static_cast<gp_Vec2d (gp_Vec2d::*)( const gp_Vec2d & ) const>(&gp_Vec2d::operator+),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
.def("__pow__",
(Standard_Real (gp_Vec2d::*)( const gp_Vec2d & ) const) static_cast<Standard_Real (gp_Vec2d::*)( const gp_Vec2d & ) const>(&gp_Vec2d::operator^),
py::is_operator(),
R"#(None)#" , py::arg("theRight")
)
.def("__itruediv__",
(void (gp_Vec2d::*)( const Standard_Real ) ) static_cast<void (gp_Vec2d::*)( const Standard_Real ) >(&gp_Vec2d::operator/=),
py::is_operator(),
R"#(None)#" , py::arg("theScalar")
)
.def("__truediv__",
(gp_Vec2d (gp_Vec2d::*)( const Standard_Real ) const) static_cast<gp_Vec2d (gp_Vec2d::*)( const Standard_Real ) const>(&gp_Vec2d::operator/),
py::is_operator(),
R"#(None)#" , py::arg("theScalar")
)
.def("__mul__",
(Standard_Real (gp_Vec2d::*)( const gp_Vec2d & ) const) static_cast<Standard_Real (gp_Vec2d::*)( const gp_Vec2d & ) const>(&gp_Vec2d::operator*),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
.def("__rmul__",
(Standard_Real (gp_Vec2d::*)( const gp_Vec2d & ) const) static_cast<Standard_Real (gp_Vec2d::*)( const gp_Vec2d & ) const>(&gp_Vec2d::operator*),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
.def("__imul__",
(void (gp_Vec2d::*)( const Standard_Real ) ) static_cast<void (gp_Vec2d::*)( const Standard_Real ) >(&gp_Vec2d::operator*=),
py::is_operator(),
R"#(None)#" , py::arg("theScalar")
)
.def("__mul__",
(gp_Vec2d (gp_Vec2d::*)( const Standard_Real ) const) static_cast<gp_Vec2d (gp_Vec2d::*)( const Standard_Real ) const>(&gp_Vec2d::operator*),
py::is_operator(),
R"#(None)#" , py::arg("theScalar")
)
.def("__rmul__",
(gp_Vec2d (gp_Vec2d::*)( const Standard_Real ) const) static_cast<gp_Vec2d (gp_Vec2d::*)( const Standard_Real ) const>(&gp_Vec2d::operator*),
py::is_operator(),
R"#(None)#" , py::arg("theScalar")
)
.def("__sub__",
(gp_Vec2d (gp_Vec2d::*)() const) static_cast<gp_Vec2d (gp_Vec2d::*)() const>(&gp_Vec2d::operator-),
py::is_operator(),
R"#(None)#"
)
.def("__isub__",
(void (gp_Vec2d::*)( const gp_Vec2d & ) ) static_cast<void (gp_Vec2d::*)( const gp_Vec2d & ) >(&gp_Vec2d::operator-=),
py::is_operator(),
R"#(None)#" , py::arg("theRight")
)
.def("__sub__",
(gp_Vec2d (gp_Vec2d::*)( const gp_Vec2d & ) const) static_cast<gp_Vec2d (gp_Vec2d::*)( const gp_Vec2d & ) const>(&gp_Vec2d::operator-),
py::is_operator(),
R"#(None)#" , py::arg("theRight")
)
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
.def("XY",
(const gp_XY & (gp_Vec2d::*)() const) static_cast<const gp_XY & (gp_Vec2d::*)() const>(&gp_Vec2d::XY),
R"#(For this vector, returns its two coordinates as a number pair)#"
)
;
// Class gp_XY from ./opencascade/gp_XY.hxx
klass = m.attr("gp_XY");
// nested enums
static_cast<py::class_<gp_XY , shared_ptr<gp_XY> >>(klass)
// constructors
.def(py::init< >() )
.def(py::init< const Standard_Real,const Standard_Real >() , py::arg("theX"), py::arg("theY") )
// custom constructors
// methods
.def("SetCoord",
(void (gp_XY::*)( const Standard_Integer , const Standard_Real ) ) static_cast<void (gp_XY::*)( const Standard_Integer , const Standard_Real ) >(&gp_XY::SetCoord),
R"#(modifies the coordinate of range theIndex theIndex = 1 => X is modified theIndex = 2 => Y is modified Raises OutOfRange if theIndex != {1, 2}.)#" , py::arg("theIndex"), py::arg("theXi")
)
.def("SetCoord",
(void (gp_XY::*)( const Standard_Real , const Standard_Real ) ) static_cast<void (gp_XY::*)( const Standard_Real , const Standard_Real ) >(&gp_XY::SetCoord),
R"#(For this number pair, assigns the values theX and theY to its coordinates)#" , py::arg("theX"), py::arg("theY")
)
.def("SetX",
(void (gp_XY::*)( const Standard_Real ) ) static_cast<void (gp_XY::*)( const Standard_Real ) >(&gp_XY::SetX),
R"#(Assigns the given value to the X coordinate of this number pair.)#" , py::arg("theX")
)
.def("SetY",
(void (gp_XY::*)( const Standard_Real ) ) static_cast<void (gp_XY::*)( const Standard_Real ) >(&gp_XY::SetY),
R"#(Assigns the given value to the Y coordinate of this number pair.)#" , py::arg("theY")
)
.def("Coord",
(Standard_Real (gp_XY::*)( const Standard_Integer ) const) static_cast<Standard_Real (gp_XY::*)( const Standard_Integer ) const>(&gp_XY::Coord),
R"#(returns the coordinate of range theIndex : theIndex = 1 => X is returned theIndex = 2 => Y is returned Raises OutOfRange if theIndex != {1, 2}.)#" , py::arg("theIndex")
)
.def("ChangeCoord",
(Standard_Real & (gp_XY::*)( const Standard_Integer ) ) static_cast<Standard_Real & (gp_XY::*)( const Standard_Integer ) >(&gp_XY::ChangeCoord),
R"#(None)#" , py::arg("theIndex")
)
.def("X",
(Standard_Real (gp_XY::*)() const) static_cast<Standard_Real (gp_XY::*)() const>(&gp_XY::X),
R"#(Returns the X coordinate of this number pair.)#"
)
.def("Y",
(Standard_Real (gp_XY::*)() const) static_cast<Standard_Real (gp_XY::*)() const>(&gp_XY::Y),
R"#(Returns the Y coordinate of this number pair.)#"
)
.def("Modulus",
(Standard_Real (gp_XY::*)() const) static_cast<Standard_Real (gp_XY::*)() const>(&gp_XY::Modulus),
R"#(Computes Sqrt (X*X + Y*Y) where X and Y are the two coordinates of this number pair.)#"
)
.def("SquareModulus",
(Standard_Real (gp_XY::*)() const) static_cast<Standard_Real (gp_XY::*)() const>(&gp_XY::SquareModulus),
R"#(Computes X*X + Y*Y where X and Y are the two coordinates of this number pair.)#"
)
.def("IsEqual",
(Standard_Boolean (gp_XY::*)( const gp_XY & , const Standard_Real ) const) static_cast<Standard_Boolean (gp_XY::*)( const gp_XY & , const Standard_Real ) const>(&gp_XY::IsEqual),
R"#(Returns true if the coordinates of this number pair are equal to the respective coordinates of the number pair theOther, within the specified tolerance theTolerance. I.e.: abs(<me>.X() - theOther.X()) <= theTolerance and abs(<me>.Y() - theOther.Y()) <= theTolerance and computations)#" , py::arg("theOther"), py::arg("theTolerance")
)
.def("Add",
(void (gp_XY::*)( const gp_XY & ) ) static_cast<void (gp_XY::*)( const gp_XY & ) >(&gp_XY::Add),
R"#(Computes the sum of this number pair and number pair theOther)#" , py::arg("theOther")
)
.def("Added",
(gp_XY (gp_XY::*)( const gp_XY & ) const) static_cast<gp_XY (gp_XY::*)( const gp_XY & ) const>(&gp_XY::Added),
R"#(Computes the sum of this number pair and number pair theOther)#" , py::arg("theOther")
)
.def("Crossed",
(Standard_Real (gp_XY::*)( const gp_XY & ) const) static_cast<Standard_Real (gp_XY::*)( const gp_XY & ) const>(&gp_XY::Crossed),
R"#()#" , py::arg("theOther")
)
.def("CrossMagnitude",
(Standard_Real (gp_XY::*)( const gp_XY & ) const) static_cast<Standard_Real (gp_XY::*)( const gp_XY & ) const>(&gp_XY::CrossMagnitude),
R"#(computes the magnitude of the cross product between <me> and theRight. Returns || <me> ^ theRight ||)#" , py::arg("theRight")
)
.def("CrossSquareMagnitude",
(Standard_Real (gp_XY::*)( const gp_XY & ) const) static_cast<Standard_Real (gp_XY::*)( const gp_XY & ) const>(&gp_XY::CrossSquareMagnitude),
R"#(computes the square magnitude of the cross product between <me> and theRight. Returns || <me> ^ theRight ||**2)#" , py::arg("theRight")
)
.def("Divide",
(void (gp_XY::*)( const Standard_Real ) ) static_cast<void (gp_XY::*)( const Standard_Real ) >(&gp_XY::Divide),
R"#(divides <me> by a real.)#" , py::arg("theScalar")
)
.def("Divided",
(gp_XY (gp_XY::*)( const Standard_Real ) const) static_cast<gp_XY (gp_XY::*)( const Standard_Real ) const>(&gp_XY::Divided),
R"#(Divides <me> by a real.)#" , py::arg("theScalar")
)
.def("Dot",
(Standard_Real (gp_XY::*)( const gp_XY & ) const) static_cast<Standard_Real (gp_XY::*)( const gp_XY & ) const>(&gp_XY::Dot),
R"#(Computes the scalar product between <me> and theOther)#" , py::arg("theOther")
)
.def("Multiply",
(void (gp_XY::*)( const Standard_Real ) ) static_cast<void (gp_XY::*)( const Standard_Real ) >(&gp_XY::Multiply),
R"#()#" , py::arg("theScalar")
)
.def("Multiply",
(void (gp_XY::*)( const gp_XY & ) ) static_cast<void (gp_XY::*)( const gp_XY & ) >(&gp_XY::Multiply),
R"#()#" , py::arg("theOther")
)
.def("Multiply",
(void (gp_XY::*)( const gp_Mat2d & ) ) static_cast<void (gp_XY::*)( const gp_Mat2d & ) >(&gp_XY::Multiply),
R"#(<me> = theMatrix * <me>)#" , py::arg("theMatrix")
)
.def("Multiplied",
(gp_XY (gp_XY::*)( const Standard_Real ) const) static_cast<gp_XY (gp_XY::*)( const Standard_Real ) const>(&gp_XY::Multiplied),
R"#()#" , py::arg("theScalar")
)
.def("Multiplied",
(gp_XY (gp_XY::*)( const gp_XY & ) const) static_cast<gp_XY (gp_XY::*)( const gp_XY & ) const>(&gp_XY::Multiplied),
R"#()#" , py::arg("theOther")
)
.def("Multiplied",
(gp_XY (gp_XY::*)( const gp_Mat2d & ) const) static_cast<gp_XY (gp_XY::*)( const gp_Mat2d & ) const>(&gp_XY::Multiplied),
R"#(New = theMatrix * <me>)#" , py::arg("theMatrix")
)
.def("Normalize",
(void (gp_XY::*)() ) static_cast<void (gp_XY::*)() >(&gp_XY::Normalize),
R"#(Raises ConstructionError if <me>.Modulus() <= Resolution from gp)#"
)
.def("Normalized",
(gp_XY (gp_XY::*)() const) static_cast<gp_XY (gp_XY::*)() const>(&gp_XY::Normalized),
R"#(Raises ConstructionError if <me>.Modulus() <= Resolution from gp)#"
)
.def("Reverse",
(void (gp_XY::*)() ) static_cast<void (gp_XY::*)() >(&gp_XY::Reverse),
R"#()#"
)
.def("Reversed",
(gp_XY (gp_XY::*)() const) static_cast<gp_XY (gp_XY::*)() const>(&gp_XY::Reversed),
R"#()#"
)
.def("SetLinearForm",
(void (gp_XY::*)( const Standard_Real , const gp_XY & , const Standard_Real , const gp_XY & ) ) static_cast<void (gp_XY::*)( const Standard_Real , const gp_XY & , const Standard_Real , const gp_XY & ) >(&gp_XY::SetLinearForm),
R"#(Computes the following linear combination and assigns the result to this number pair:)#" , py::arg("theA1"), py::arg("theXY1"), py::arg("theA2"), py::arg("theXY2")
)
.def("SetLinearForm",
(void (gp_XY::*)( const Standard_Real , const gp_XY & , const Standard_Real , const gp_XY & , const gp_XY & ) ) static_cast<void (gp_XY::*)( const Standard_Real , const gp_XY & , const Standard_Real , const gp_XY & , const gp_XY & ) >(&gp_XY::SetLinearForm),
R"#(-- Computes the following linear combination and assigns the result to this number pair:)#" , py::arg("theA1"), py::arg("theXY1"), py::arg("theA2"), py::arg("theXY2"), py::arg("theXY3")
)
.def("SetLinearForm",
(void (gp_XY::*)( const Standard_Real , const gp_XY & , const gp_XY & ) ) static_cast<void (gp_XY::*)( const Standard_Real , const gp_XY & , const gp_XY & ) >(&gp_XY::SetLinearForm),
R"#(Computes the following linear combination and assigns the result to this number pair:)#" , py::arg("theA1"), py::arg("theXY1"), py::arg("theXY2")
)
.def("SetLinearForm",
(void (gp_XY::*)( const gp_XY & , const gp_XY & ) ) static_cast<void (gp_XY::*)( const gp_XY & , const gp_XY & ) >(&gp_XY::SetLinearForm),
R"#(Computes the following linear combination and assigns the result to this number pair:)#" , py::arg("theXY1"), py::arg("theXY2")
)
.def("Subtract",
(void (gp_XY::*)( const gp_XY & ) ) static_cast<void (gp_XY::*)( const gp_XY & ) >(&gp_XY::Subtract),
R"#()#" , py::arg("theOther")
)
.def("Subtracted",
(gp_XY (gp_XY::*)( const gp_XY & ) const) static_cast<gp_XY (gp_XY::*)( const gp_XY & ) const>(&gp_XY::Subtracted),
R"#()#" , py::arg("theOther")
)
.def("Multiply",
(void (gp_XY::*)( const gp_Mat2d & ) ) static_cast<void (gp_XY::*)( const gp_Mat2d & ) >(&gp_XY::Multiply),
R"#(<me> = theMatrix * <me>)#" , py::arg("theMatrix")
)
.def("Normalize",
(void (gp_XY::*)() ) static_cast<void (gp_XY::*)() >(&gp_XY::Normalize),
R"#(Raises ConstructionError if <me>.Modulus() <= Resolution from gp)#"
)
// methods using call by reference i.s.o. return
.def("Coord",
[]( gp_XY &self ){
Standard_Real theX;
Standard_Real theY;
self.Coord(theX,theY);
return std::make_tuple(theX,theY); },
R"#(For this number pair, returns its coordinates X and Y.)#"
)
// static methods
// static methods using call by reference i.s.o. return
// operators
.def("__iadd__",
(void (gp_XY::*)( const gp_XY & ) ) static_cast<void (gp_XY::*)( const gp_XY & ) >(&gp_XY::operator+=),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
.def("__add__",
(gp_XY (gp_XY::*)( const gp_XY & ) const) static_cast<gp_XY (gp_XY::*)( const gp_XY & ) const>(&gp_XY::operator+),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
.def("__pow__",
(Standard_Real (gp_XY::*)( const gp_XY & ) const) static_cast<Standard_Real (gp_XY::*)( const gp_XY & ) const>(&gp_XY::operator^),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
.def("__itruediv__",
(void (gp_XY::*)( const Standard_Real ) ) static_cast<void (gp_XY::*)( const Standard_Real ) >(&gp_XY::operator/=),
py::is_operator(),
R"#(None)#" , py::arg("theScalar")
)
.def("__truediv__",
(gp_XY (gp_XY::*)( const Standard_Real ) const) static_cast<gp_XY (gp_XY::*)( const Standard_Real ) const>(&gp_XY::operator/),
py::is_operator(),
R"#(None)#" , py::arg("theScalar")
)
.def("__mul__",
(Standard_Real (gp_XY::*)( const gp_XY & ) const) static_cast<Standard_Real (gp_XY::*)( const gp_XY & ) const>(&gp_XY::operator*),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
.def("__rmul__",
(Standard_Real (gp_XY::*)( const gp_XY & ) const) static_cast<Standard_Real (gp_XY::*)( const gp_XY & ) const>(&gp_XY::operator*),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
.def("__imul__",
(void (gp_XY::*)( const Standard_Real ) ) static_cast<void (gp_XY::*)( const Standard_Real ) >(&gp_XY::operator*=),
py::is_operator(),
R"#(None)#" , py::arg("theScalar")
)
.def("__imul__",
(void (gp_XY::*)( const gp_XY & ) ) static_cast<void (gp_XY::*)( const gp_XY & ) >(&gp_XY::operator*=),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
.def("__imul__",
(void (gp_XY::*)( const gp_Mat2d & ) ) static_cast<void (gp_XY::*)( const gp_Mat2d & ) >(&gp_XY::operator*=),
py::is_operator(),
R"#(None)#" , py::arg("theMatrix")
)
.def("__mul__",
(gp_XY (gp_XY::*)( const Standard_Real ) const) static_cast<gp_XY (gp_XY::*)( const Standard_Real ) const>(&gp_XY::operator*),
py::is_operator(),
R"#(None)#" , py::arg("theScalar")
)
.def("__rmul__",
(gp_XY (gp_XY::*)( const Standard_Real ) const) static_cast<gp_XY (gp_XY::*)( const Standard_Real ) const>(&gp_XY::operator*),
py::is_operator(),
R"#(None)#" , py::arg("theScalar")
)
.def("__mul__",
(gp_XY (gp_XY::*)( const gp_Mat2d & ) const) static_cast<gp_XY (gp_XY::*)( const gp_Mat2d & ) const>(&gp_XY::operator*),
py::is_operator(),
R"#(None)#" , py::arg("theMatrix")
)
.def("__rmul__",
(gp_XY (gp_XY::*)( const gp_Mat2d & ) const) static_cast<gp_XY (gp_XY::*)( const gp_Mat2d & ) const>(&gp_XY::operator*),
py::is_operator(),
R"#(None)#" , py::arg("theMatrix")
)
.def("__sub__",
(gp_XY (gp_XY::*)() const) static_cast<gp_XY (gp_XY::*)() const>(&gp_XY::operator-),
py::is_operator(),
R"#(None)#"
)
.def("__isub__",
(void (gp_XY::*)( const gp_XY & ) ) static_cast<void (gp_XY::*)( const gp_XY & ) >(&gp_XY::operator-=),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
.def("__sub__",
(gp_XY (gp_XY::*)( const gp_XY & ) const) static_cast<gp_XY (gp_XY::*)( const gp_XY & ) const>(&gp_XY::operator-),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
;
// Class gp_XYZ from ./opencascade/gp_XYZ.hxx
klass = m.attr("gp_XYZ");
// nested enums
static_cast<py::class_<gp_XYZ , shared_ptr<gp_XYZ> >>(klass)
// constructors
.def(py::init< >() )
.def(py::init< const Standard_Real,const Standard_Real,const Standard_Real >() , py::arg("theX"), py::arg("theY"), py::arg("theZ") )
// custom constructors
// methods
.def("SetCoord",
(void (gp_XYZ::*)( const Standard_Real , const Standard_Real , const Standard_Real ) ) static_cast<void (gp_XYZ::*)( const Standard_Real , const Standard_Real , const Standard_Real ) >(&gp_XYZ::SetCoord),
R"#(For this XYZ object, assigns the values theX, theY and theZ to its three coordinates)#" , py::arg("theX"), py::arg("theY"), py::arg("theZ")
)
.def("SetCoord",
(void (gp_XYZ::*)( const Standard_Integer , const Standard_Real ) ) static_cast<void (gp_XYZ::*)( const Standard_Integer , const Standard_Real ) >(&gp_XYZ::SetCoord),
R"#(modifies the coordinate of range theIndex theIndex = 1 => X is modified theIndex = 2 => Y is modified theIndex = 3 => Z is modified Raises OutOfRange if theIndex != {1, 2, 3}.)#" , py::arg("theIndex"), py::arg("theXi")
)
.def("SetX",
(void (gp_XYZ::*)( const Standard_Real ) ) static_cast<void (gp_XYZ::*)( const Standard_Real ) >(&gp_XYZ::SetX),
R"#(Assigns the given value to the X coordinate)#" , py::arg("theX")
)
.def("SetY",
(void (gp_XYZ::*)( const Standard_Real ) ) static_cast<void (gp_XYZ::*)( const Standard_Real ) >(&gp_XYZ::SetY),
R"#(Assigns the given value to the Y coordinate)#" , py::arg("theY")
)
.def("SetZ",
(void (gp_XYZ::*)( const Standard_Real ) ) static_cast<void (gp_XYZ::*)( const Standard_Real ) >(&gp_XYZ::SetZ),
R"#(Assigns the given value to the Z coordinate)#" , py::arg("theZ")
)
.def("Coord",
(Standard_Real (gp_XYZ::*)( const Standard_Integer ) const) static_cast<Standard_Real (gp_XYZ::*)( const Standard_Integer ) const>(&gp_XYZ::Coord),
R"#(returns the coordinate of range theIndex : theIndex = 1 => X is returned theIndex = 2 => Y is returned theIndex = 3 => Z is returned)#" , py::arg("theIndex")
)
.def("ChangeCoord",
(Standard_Real & (gp_XYZ::*)( const Standard_Integer ) ) static_cast<Standard_Real & (gp_XYZ::*)( const Standard_Integer ) >(&gp_XYZ::ChangeCoord),
R"#(None)#" , py::arg("theIndex")
)
.def("GetData",
(const Standard_Real * (gp_XYZ::*)() const) static_cast<const Standard_Real * (gp_XYZ::*)() const>(&gp_XYZ::GetData),
R"#(Returns a const ptr to coordinates location. Is useful for algorithms, but DOES NOT PERFORM ANY CHECKS!)#"
)
.def("ChangeData",
(Standard_Real * (gp_XYZ::*)() ) static_cast<Standard_Real * (gp_XYZ::*)() >(&gp_XYZ::ChangeData),
R"#(Returns a ptr to coordinates location. Is useful for algorithms, but DOES NOT PERFORM ANY CHECKS!)#"
)
.def("X",
(Standard_Real (gp_XYZ::*)() const) static_cast<Standard_Real (gp_XYZ::*)() const>(&gp_XYZ::X),
R"#(Returns the X coordinate)#"
)
.def("Y",
(Standard_Real (gp_XYZ::*)() const) static_cast<Standard_Real (gp_XYZ::*)() const>(&gp_XYZ::Y),
R"#(Returns the Y coordinate)#"
)
.def("Z",
(Standard_Real (gp_XYZ::*)() const) static_cast<Standard_Real (gp_XYZ::*)() const>(&gp_XYZ::Z),
R"#(Returns the Z coordinate)#"
)
.def("Modulus",
(Standard_Real (gp_XYZ::*)() const) static_cast<Standard_Real (gp_XYZ::*)() const>(&gp_XYZ::Modulus),
R"#(computes Sqrt (X*X + Y*Y + Z*Z) where X, Y and Z are the three coordinates of this XYZ object.)#"
)
.def("SquareModulus",
(Standard_Real (gp_XYZ::*)() const) static_cast<Standard_Real (gp_XYZ::*)() const>(&gp_XYZ::SquareModulus),
R"#(Computes X*X + Y*Y + Z*Z where X, Y and Z are the three coordinates of this XYZ object.)#"
)
.def("IsEqual",
(Standard_Boolean (gp_XYZ::*)( const gp_XYZ & , const Standard_Real ) const) static_cast<Standard_Boolean (gp_XYZ::*)( const gp_XYZ & , const Standard_Real ) const>(&gp_XYZ::IsEqual),
R"#(Returns True if he coordinates of this XYZ object are equal to the respective coordinates Other, within the specified tolerance theTolerance. I.e.: abs(<me>.X() - theOther.X()) <= theTolerance and abs(<me>.Y() - theOther.Y()) <= theTolerance and abs(<me>.Z() - theOther.Z()) <= theTolerance.)#" , py::arg("theOther"), py::arg("theTolerance")
)
.def("Add",
(void (gp_XYZ::*)( const gp_XYZ & ) ) static_cast<void (gp_XYZ::*)( const gp_XYZ & ) >(&gp_XYZ::Add),
R"#()#" , py::arg("theOther")
)
.def("Added",
(gp_XYZ (gp_XYZ::*)( const gp_XYZ & ) const) static_cast<gp_XYZ (gp_XYZ::*)( const gp_XYZ & ) const>(&gp_XYZ::Added),
R"#()#" , py::arg("theOther")
)
.def("Cross",
(void (gp_XYZ::*)( const gp_XYZ & ) ) static_cast<void (gp_XYZ::*)( const gp_XYZ & ) >(&gp_XYZ::Cross),
R"#()#" , py::arg("theOther")
)
.def("Crossed",
(gp_XYZ (gp_XYZ::*)( const gp_XYZ & ) const) static_cast<gp_XYZ (gp_XYZ::*)( const gp_XYZ & ) const>(&gp_XYZ::Crossed),
R"#()#" , py::arg("theOther")
)
.def("CrossMagnitude",
(Standard_Real (gp_XYZ::*)( const gp_XYZ & ) const) static_cast<Standard_Real (gp_XYZ::*)( const gp_XYZ & ) const>(&gp_XYZ::CrossMagnitude),
R"#(Computes the magnitude of the cross product between <me> and theRight. Returns || <me> ^ theRight ||)#" , py::arg("theRight")
)
.def("CrossSquareMagnitude",
(Standard_Real (gp_XYZ::*)( const gp_XYZ & ) const) static_cast<Standard_Real (gp_XYZ::*)( const gp_XYZ & ) const>(&gp_XYZ::CrossSquareMagnitude),
R"#(Computes the square magnitude of the cross product between <me> and theRight. Returns || <me> ^ theRight ||**2)#" , py::arg("theRight")
)
.def("CrossCross",
(void (gp_XYZ::*)( const gp_XYZ & , const gp_XYZ & ) ) static_cast<void (gp_XYZ::*)( const gp_XYZ & , const gp_XYZ & ) >(&gp_XYZ::CrossCross),
R"#(Triple vector product Computes <me> = <me>.Cross(theCoord1.Cross(theCoord2)))#" , py::arg("theCoord1"), py::arg("theCoord2")
)
.def("CrossCrossed",
(gp_XYZ (gp_XYZ::*)( const gp_XYZ & , const gp_XYZ & ) const) static_cast<gp_XYZ (gp_XYZ::*)( const gp_XYZ & , const gp_XYZ & ) const>(&gp_XYZ::CrossCrossed),
R"#(Triple vector product computes New = <me>.Cross(theCoord1.Cross(theCoord2)))#" , py::arg("theCoord1"), py::arg("theCoord2")
)
.def("Divide",
(void (gp_XYZ::*)( const Standard_Real ) ) static_cast<void (gp_XYZ::*)( const Standard_Real ) >(&gp_XYZ::Divide),
R"#(divides <me> by a real.)#" , py::arg("theScalar")
)
.def("Divided",
(gp_XYZ (gp_XYZ::*)( const Standard_Real ) const) static_cast<gp_XYZ (gp_XYZ::*)( const Standard_Real ) const>(&gp_XYZ::Divided),
R"#(divides <me> by a real.)#" , py::arg("theScalar")
)
.def("Dot",
(Standard_Real (gp_XYZ::*)( const gp_XYZ & ) const) static_cast<Standard_Real (gp_XYZ::*)( const gp_XYZ & ) const>(&gp_XYZ::Dot),
R"#(computes the scalar product between <me> and theOther)#" , py::arg("theOther")
)
.def("DotCross",
(Standard_Real (gp_XYZ::*)( const gp_XYZ & , const gp_XYZ & ) const) static_cast<Standard_Real (gp_XYZ::*)( const gp_XYZ & , const gp_XYZ & ) const>(&gp_XYZ::DotCross),
R"#(computes the triple scalar product)#" , py::arg("theCoord1"), py::arg("theCoord2")
)
.def("Multiply",
(void (gp_XYZ::*)( const Standard_Real ) ) static_cast<void (gp_XYZ::*)( const Standard_Real ) >(&gp_XYZ::Multiply),
R"#()#" , py::arg("theScalar")
)
.def("Multiply",
(void (gp_XYZ::*)( const gp_XYZ & ) ) static_cast<void (gp_XYZ::*)( const gp_XYZ & ) >(&gp_XYZ::Multiply),
R"#()#" , py::arg("theOther")
)
.def("Multiply",
(void (gp_XYZ::*)( const gp_Mat & ) ) static_cast<void (gp_XYZ::*)( const gp_Mat & ) >(&gp_XYZ::Multiply),
R"#(<me> = theMatrix * <me>)#" , py::arg("theMatrix")
)
.def("Multiplied",
(gp_XYZ (gp_XYZ::*)( const Standard_Real ) const) static_cast<gp_XYZ (gp_XYZ::*)( const Standard_Real ) const>(&gp_XYZ::Multiplied),
R"#()#" , py::arg("theScalar")
)
.def("Multiplied",
(gp_XYZ (gp_XYZ::*)( const gp_XYZ & ) const) static_cast<gp_XYZ (gp_XYZ::*)( const gp_XYZ & ) const>(&gp_XYZ::Multiplied),
R"#()#" , py::arg("theOther")
)
.def("Multiplied",
(gp_XYZ (gp_XYZ::*)( const gp_Mat & ) const) static_cast<gp_XYZ (gp_XYZ::*)( const gp_Mat & ) const>(&gp_XYZ::Multiplied),
R"#(New = theMatrix * <me>)#" , py::arg("theMatrix")
)
.def("Normalize",
(void (gp_XYZ::*)() ) static_cast<void (gp_XYZ::*)() >(&gp_XYZ::Normalize),
R"#(Raised if <me>.Modulus() <= Resolution from gp)#"
)
.def("Normalized",
(gp_XYZ (gp_XYZ::*)() const) static_cast<gp_XYZ (gp_XYZ::*)() const>(&gp_XYZ::Normalized),
R"#(Raised if <me>.Modulus() <= Resolution from gp)#"
)
.def("Reverse",
(void (gp_XYZ::*)() ) static_cast<void (gp_XYZ::*)() >(&gp_XYZ::Reverse),
R"#()#"
)
.def("Reversed",
(gp_XYZ (gp_XYZ::*)() const) static_cast<gp_XYZ (gp_XYZ::*)() const>(&gp_XYZ::Reversed),
R"#()#"
)
.def("Subtract",
(void (gp_XYZ::*)( const gp_XYZ & ) ) static_cast<void (gp_XYZ::*)( const gp_XYZ & ) >(&gp_XYZ::Subtract),
R"#()#" , py::arg("theOther")
)
.def("Subtracted",
(gp_XYZ (gp_XYZ::*)( const gp_XYZ & ) const) static_cast<gp_XYZ (gp_XYZ::*)( const gp_XYZ & ) const>(&gp_XYZ::Subtracted),
R"#()#" , py::arg("theOther")
)
.def("SetLinearForm",
(void (gp_XYZ::*)( const Standard_Real , const gp_XYZ & , const Standard_Real , const gp_XYZ & , const Standard_Real , const gp_XYZ & , const gp_XYZ & ) ) static_cast<void (gp_XYZ::*)( const Standard_Real , const gp_XYZ & , const Standard_Real , const gp_XYZ & , const Standard_Real , const gp_XYZ & , const gp_XYZ & ) >(&gp_XYZ::SetLinearForm),
R"#(<me> is set to the following linear form :)#" , py::arg("theA1"), py::arg("theXYZ1"), py::arg("theA2"), py::arg("theXYZ2"), py::arg("theA3"), py::arg("theXYZ3"), py::arg("theXYZ4")
)
.def("SetLinearForm",
(void (gp_XYZ::*)( const Standard_Real , const gp_XYZ & , const Standard_Real , const gp_XYZ & , const Standard_Real , const gp_XYZ & ) ) static_cast<void (gp_XYZ::*)( const Standard_Real , const gp_XYZ & , const Standard_Real , const gp_XYZ & , const Standard_Real , const gp_XYZ & ) >(&gp_XYZ::SetLinearForm),
R"#(<me> is set to the following linear form :)#" , py::arg("theA1"), py::arg("theXYZ1"), py::arg("theA2"), py::arg("theXYZ2"), py::arg("theA3"), py::arg("theXYZ3")
)
.def("SetLinearForm",
(void (gp_XYZ::*)( const Standard_Real , const gp_XYZ & , const Standard_Real , const gp_XYZ & , const gp_XYZ & ) ) static_cast<void (gp_XYZ::*)( const Standard_Real , const gp_XYZ & , const Standard_Real , const gp_XYZ & , const gp_XYZ & ) >(&gp_XYZ::SetLinearForm),
R"#(<me> is set to the following linear form :)#" , py::arg("theA1"), py::arg("theXYZ1"), py::arg("theA2"), py::arg("theXYZ2"), py::arg("theXYZ3")
)
.def("SetLinearForm",
(void (gp_XYZ::*)( const Standard_Real , const gp_XYZ & , const Standard_Real , const gp_XYZ & ) ) static_cast<void (gp_XYZ::*)( const Standard_Real , const gp_XYZ & , const Standard_Real , const gp_XYZ & ) >(&gp_XYZ::SetLinearForm),
R"#(<me> is set to the following linear form :)#" , py::arg("theA1"), py::arg("theXYZ1"), py::arg("theA2"), py::arg("theXYZ2")
)
.def("SetLinearForm",
(void (gp_XYZ::*)( const Standard_Real , const gp_XYZ & , const gp_XYZ & ) ) static_cast<void (gp_XYZ::*)( const Standard_Real , const gp_XYZ & , const gp_XYZ & ) >(&gp_XYZ::SetLinearForm),
R"#(<me> is set to the following linear form :)#" , py::arg("theA1"), py::arg("theXYZ1"), py::arg("theXYZ2")
)
.def("SetLinearForm",
(void (gp_XYZ::*)( const gp_XYZ & , const gp_XYZ & ) ) static_cast<void (gp_XYZ::*)( const gp_XYZ & , const gp_XYZ & ) >(&gp_XYZ::SetLinearForm),
R"#(<me> is set to the following linear form :)#" , py::arg("theXYZ1"), py::arg("theXYZ2")
)
.def("DumpJson",
(void (gp_XYZ::*)( std::ostream & , Standard_Integer ) const) static_cast<void (gp_XYZ::*)( std::ostream & , Standard_Integer ) const>(&gp_XYZ::DumpJson),
R"#(Dumps the content of me into the stream)#" , py::arg("theOStream"), py::arg("theDepth")=static_cast<Standard_Integer>(- 1)
)
.def("InitFromJson",
(Standard_Boolean (gp_XYZ::*)( const std::stringstream & , Standard_Integer & ) ) static_cast<Standard_Boolean (gp_XYZ::*)( const std::stringstream & , Standard_Integer & ) >(&gp_XYZ::InitFromJson),
R"#(Inits the content of me from the stream)#" , py::arg("theSStream"), py::arg("theStreamPos")
)
.def("Cross",
(void (gp_XYZ::*)( const gp_XYZ & ) ) static_cast<void (gp_XYZ::*)( const gp_XYZ & ) >(&gp_XYZ::Cross),
R"#()#" , py::arg("theRight")
)
.def("CrossMagnitude",
(Standard_Real (gp_XYZ::*)( const gp_XYZ & ) const) static_cast<Standard_Real (gp_XYZ::*)( const gp_XYZ & ) const>(&gp_XYZ::CrossMagnitude),
R"#(Computes the magnitude of the cross product between <me> and theRight. Returns || <me> ^ theRight ||)#" , py::arg("theRight")
)
.def("CrossSquareMagnitude",
(Standard_Real (gp_XYZ::*)( const gp_XYZ & ) const) static_cast<Standard_Real (gp_XYZ::*)( const gp_XYZ & ) const>(&gp_XYZ::CrossSquareMagnitude),
R"#(Computes the square magnitude of the cross product between <me> and theRight. Returns || <me> ^ theRight ||**2)#" , py::arg("theRight")
)
.def("CrossCross",
(void (gp_XYZ::*)( const gp_XYZ & , const gp_XYZ & ) ) static_cast<void (gp_XYZ::*)( const gp_XYZ & , const gp_XYZ & ) >(&gp_XYZ::CrossCross),
R"#(Triple vector product Computes <me> = <me>.Cross(theCoord1.Cross(theCoord2)))#" , py::arg("theCoord1"), py::arg("theCoord2")
)
.def("DotCross",
(Standard_Real (gp_XYZ::*)( const gp_XYZ & , const gp_XYZ & ) const) static_cast<Standard_Real (gp_XYZ::*)( const gp_XYZ & , const gp_XYZ & ) const>(&gp_XYZ::DotCross),
R"#(computes the triple scalar product)#" , py::arg("theCoord1"), py::arg("theCoord2")
)
.def("Multiply",
(void (gp_XYZ::*)( const gp_Mat & ) ) static_cast<void (gp_XYZ::*)( const gp_Mat & ) >(&gp_XYZ::Multiply),
R"#(<me> = theMatrix * <me>)#" , py::arg("theMatrix")
)
.def("Normalize",
(void (gp_XYZ::*)() ) static_cast<void (gp_XYZ::*)() >(&gp_XYZ::Normalize),
R"#(Raised if <me>.Modulus() <= Resolution from gp)#"
)
// methods using call by reference i.s.o. return
.def("Coord",
[]( gp_XYZ &self ){
Standard_Real theX;
Standard_Real theY;
Standard_Real theZ;
self.Coord(theX,theY,theZ);
return std::make_tuple(theX,theY,theZ); },
R"#(None)#"
)
// static methods
// static methods using call by reference i.s.o. return
// operators
.def("__iadd__",
(void (gp_XYZ::*)( const gp_XYZ & ) ) static_cast<void (gp_XYZ::*)( const gp_XYZ & ) >(&gp_XYZ::operator+=),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
.def("__add__",
(gp_XYZ (gp_XYZ::*)( const gp_XYZ & ) const) static_cast<gp_XYZ (gp_XYZ::*)( const gp_XYZ & ) const>(&gp_XYZ::operator+),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
.def("__ipow__",
(void (gp_XYZ::*)( const gp_XYZ & ) ) static_cast<void (gp_XYZ::*)( const gp_XYZ & ) >(&gp_XYZ::operator^=),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
.def("__pow__",
(gp_XYZ (gp_XYZ::*)( const gp_XYZ & ) const) static_cast<gp_XYZ (gp_XYZ::*)( const gp_XYZ & ) const>(&gp_XYZ::operator^),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
.def("__itruediv__",
(void (gp_XYZ::*)( const Standard_Real ) ) static_cast<void (gp_XYZ::*)( const Standard_Real ) >(&gp_XYZ::operator/=),
py::is_operator(),
R"#(None)#" , py::arg("theScalar")
)
.def("__truediv__",
(gp_XYZ (gp_XYZ::*)( const Standard_Real ) const) static_cast<gp_XYZ (gp_XYZ::*)( const Standard_Real ) const>(&gp_XYZ::operator/),
py::is_operator(),
R"#(None)#" , py::arg("theScalar")
)
.def("__mul__",
(Standard_Real (gp_XYZ::*)( const gp_XYZ & ) const) static_cast<Standard_Real (gp_XYZ::*)( const gp_XYZ & ) const>(&gp_XYZ::operator*),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
.def("__rmul__",
(Standard_Real (gp_XYZ::*)( const gp_XYZ & ) const) static_cast<Standard_Real (gp_XYZ::*)( const gp_XYZ & ) const>(&gp_XYZ::operator*),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
.def("__imul__",
(void (gp_XYZ::*)( const Standard_Real ) ) static_cast<void (gp_XYZ::*)( const Standard_Real ) >(&gp_XYZ::operator*=),
py::is_operator(),
R"#(None)#" , py::arg("theScalar")
)
.def("__imul__",
(void (gp_XYZ::*)( const gp_XYZ & ) ) static_cast<void (gp_XYZ::*)( const gp_XYZ & ) >(&gp_XYZ::operator*=),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
.def("__imul__",
(void (gp_XYZ::*)( const gp_Mat & ) ) static_cast<void (gp_XYZ::*)( const gp_Mat & ) >(&gp_XYZ::operator*=),
py::is_operator(),
R"#(None)#" , py::arg("theMatrix")
)
.def("__mul__",
(gp_XYZ (gp_XYZ::*)( const Standard_Real ) const) static_cast<gp_XYZ (gp_XYZ::*)( const Standard_Real ) const>(&gp_XYZ::operator*),
py::is_operator(),
R"#(None)#" , py::arg("theScalar")
)
.def("__rmul__",
(gp_XYZ (gp_XYZ::*)( const Standard_Real ) const) static_cast<gp_XYZ (gp_XYZ::*)( const Standard_Real ) const>(&gp_XYZ::operator*),
py::is_operator(),
R"#(None)#" , py::arg("theScalar")
)
.def("__mul__",
(gp_XYZ (gp_XYZ::*)( const gp_Mat & ) const) static_cast<gp_XYZ (gp_XYZ::*)( const gp_Mat & ) const>(&gp_XYZ::operator*),
py::is_operator(),
R"#(None)#" , py::arg("theMatrix")
)
.def("__rmul__",
(gp_XYZ (gp_XYZ::*)( const gp_Mat & ) const) static_cast<gp_XYZ (gp_XYZ::*)( const gp_Mat & ) const>(&gp_XYZ::operator*),
py::is_operator(),
R"#(None)#" , py::arg("theMatrix")
)
.def("__isub__",
(void (gp_XYZ::*)( const gp_XYZ & ) ) static_cast<void (gp_XYZ::*)( const gp_XYZ & ) >(&gp_XYZ::operator-=),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
.def("__sub__",
(gp_XYZ (gp_XYZ::*)( const gp_XYZ & ) const) static_cast<gp_XYZ (gp_XYZ::*)( const gp_XYZ & ) const>(&gp_XYZ::operator-),
py::is_operator(),
R"#(None)#" , py::arg("theOther")
)
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
;
// functions
// ./opencascade/gp.hxx
// ./opencascade/gp_Ax1.hxx
// ./opencascade/gp_Ax2.hxx
// ./opencascade/gp_Ax22d.hxx
// ./opencascade/gp_Ax2d.hxx
// ./opencascade/gp_Ax3.hxx
// ./opencascade/gp_Circ.hxx
// ./opencascade/gp_Circ2d.hxx
// ./opencascade/gp_Cone.hxx
// ./opencascade/gp_Cylinder.hxx
// ./opencascade/gp_Dir.hxx
// ./opencascade/gp_Dir2d.hxx
// ./opencascade/gp_Elips.hxx
// ./opencascade/gp_Elips2d.hxx
// ./opencascade/gp_EulerSequence.hxx
// ./opencascade/gp_GTrsf.hxx
// ./opencascade/gp_GTrsf2d.hxx
// ./opencascade/gp_Hypr.hxx
// ./opencascade/gp_Hypr2d.hxx
// ./opencascade/gp_Lin.hxx
// ./opencascade/gp_Lin2d.hxx
// ./opencascade/gp_Mat.hxx
// ./opencascade/gp_Mat2d.hxx
// ./opencascade/gp_Parab.hxx
// ./opencascade/gp_Parab2d.hxx
// ./opencascade/gp_Pln.hxx
// ./opencascade/gp_Pnt.hxx
// ./opencascade/gp_Pnt2d.hxx
// ./opencascade/gp_Quaternion.hxx
// ./opencascade/gp_QuaternionNLerp.hxx
// ./opencascade/gp_QuaternionSLerp.hxx
// ./opencascade/gp_Sphere.hxx
// ./opencascade/gp_Torus.hxx
// ./opencascade/gp_Trsf.hxx
// ./opencascade/gp_Trsf2d.hxx
// ./opencascade/gp_TrsfForm.hxx
// ./opencascade/gp_TrsfNLerp.hxx
// ./opencascade/gp_Vec.hxx
// ./opencascade/gp_Vec2d.hxx
// ./opencascade/gp_Vec2f.hxx
// ./opencascade/gp_Vec3f.hxx
// ./opencascade/gp_VectorWithNullMagnitude.hxx
// ./opencascade/gp_XY.hxx
// ./opencascade/gp_XYZ.hxx
// Additional functions
// operators
m.def("__mul__",
(gp_XYZ (*)( const gp_Mat & , const gp_XYZ & )) static_cast<gp_XYZ (*)( const gp_Mat & , const gp_XYZ & )>(&operator*),
py::is_operator(),
R"#(None)#" , py::arg("theMatrix"), py::arg("theCoord1"));
m.def("__rmul__",
(gp_XYZ (*)( const gp_Mat & , const gp_XYZ & )) static_cast<gp_XYZ (*)( const gp_Mat & , const gp_XYZ & )>(&operator*),
py::is_operator(),
R"#(None)#" , py::arg("theMatrix"), py::arg("theCoord1"));
m.def("__mul__",
(gp_XYZ (*)( const Standard_Real , const gp_XYZ & )) static_cast<gp_XYZ (*)( const Standard_Real , const gp_XYZ & )>(&operator*),
py::is_operator(),
R"#(None)#" , py::arg("theScalar"), py::arg("theCoord1"));
m.def("__rmul__",
(gp_XYZ (*)( const Standard_Real , const gp_XYZ & )) static_cast<gp_XYZ (*)( const Standard_Real , const gp_XYZ & )>(&operator*),
py::is_operator(),
R"#(None)#" , py::arg("theScalar"), py::arg("theCoord1"));
m.def("__mul__",
(gp_Mat2d (*)( const Standard_Real , const gp_Mat2d & )) static_cast<gp_Mat2d (*)( const Standard_Real , const gp_Mat2d & )>(&operator*),
py::is_operator(),
R"#(None)#" , py::arg("theScalar"), py::arg("theMat2D"));
m.def("__rmul__",
(gp_Mat2d (*)( const Standard_Real , const gp_Mat2d & )) static_cast<gp_Mat2d (*)( const Standard_Real , const gp_Mat2d & )>(&operator*),
py::is_operator(),
R"#(None)#" , py::arg("theScalar"), py::arg("theMat2D"));
m.def("__mul__",
(gp_XY (*)( const gp_Mat2d & , const gp_XY & )) static_cast<gp_XY (*)( const gp_Mat2d & , const gp_XY & )>(&operator*),
py::is_operator(),
R"#(None)#" , py::arg("theMatrix"), py::arg("theCoord1"));
m.def("__rmul__",
(gp_XY (*)( const gp_Mat2d & , const gp_XY & )) static_cast<gp_XY (*)( const gp_Mat2d & , const gp_XY & )>(&operator*),
py::is_operator(),
R"#(None)#" , py::arg("theMatrix"), py::arg("theCoord1"));
m.def("__mul__",
(gp_XY (*)( const Standard_Real , const gp_XY & )) static_cast<gp_XY (*)( const Standard_Real , const gp_XY & )>(&operator*),
py::is_operator(),
R"#(None)#" , py::arg("theScalar"), py::arg("theCoord1"));
m.def("__rmul__",
(gp_XY (*)( const Standard_Real , const gp_XY & )) static_cast<gp_XY (*)( const Standard_Real , const gp_XY & )>(&operator*),
py::is_operator(),
R"#(None)#" , py::arg("theScalar"), py::arg("theCoord1"));
m.def("__mul__",
(gp_Vec (*)( const Standard_Real , const gp_Vec & )) static_cast<gp_Vec (*)( const Standard_Real , const gp_Vec & )>(&operator*),
py::is_operator(),
R"#(None)#" , py::arg("theScalar"), py::arg("theV"));
m.def("__rmul__",
(gp_Vec (*)( const Standard_Real , const gp_Vec & )) static_cast<gp_Vec (*)( const Standard_Real , const gp_Vec & )>(&operator*),
py::is_operator(),
R"#(None)#" , py::arg("theScalar"), py::arg("theV"));
m.def("__mul__",
(gp_Vec2d (*)( const Standard_Real , const gp_Vec2d & )) static_cast<gp_Vec2d (*)( const Standard_Real , const gp_Vec2d & )>(&operator*),
py::is_operator(),
R"#(None)#" , py::arg("theScalar"), py::arg("theV"));
m.def("__rmul__",
(gp_Vec2d (*)( const Standard_Real , const gp_Vec2d & )) static_cast<gp_Vec2d (*)( const Standard_Real , const gp_Vec2d & )>(&operator*),
py::is_operator(),
R"#(None)#" , py::arg("theScalar"), py::arg("theV"));
m.def("__mul__",
(gp_Mat (*)( const Standard_Real , const gp_Mat & )) static_cast<gp_Mat (*)( const Standard_Real , const gp_Mat & )>(&operator*),
py::is_operator(),
R"#(None)#" , py::arg("theScalar"), py::arg("theMat3D"));
m.def("__rmul__",
(gp_Mat (*)( const Standard_Real , const gp_Mat & )) static_cast<gp_Mat (*)( const Standard_Real , const gp_Mat & )>(&operator*),
py::is_operator(),
R"#(None)#" , py::arg("theScalar"), py::arg("theMat3D"));
// register typdefs
register_template_NCollection_Vec2<Standard_ShortReal>(m,"gp_Vec2f");
register_template_NCollection_Vec3<Standard_ShortReal>(m,"gp_Vec3f");
// exceptions
register_occ_exception<gp_VectorWithNullMagnitude>(m, "gp_VectorWithNullMagnitude");
// user-defined post-inclusion per module in the body
};
// user-defined post-inclusion per module
// user-defined post
|
