Knowledge (XXG)

Crease pattern

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designer choose not to produce diagrams. For example, an algorithm for the automatic development of crease patterns for certain polyhedra with discrete rotational symmetry by composing right frusta has been implemented via a CAD program. The program allows users to specify a target polyhedron and generate a crease pattern that folds into it. Still, there are many cases in which designers wish to sequence the steps of their models but lack the means to design clear diagrams. Such origamists occasionally resort to the
17: 65:(SCP) which is a set of crease patterns showing the creases up to each respective fold. The SCP eliminates the need for diagramming programs or artistic ability while maintaining the step-by-step process for other folders to see. Another name for the sequenced crease pattern is the progressive crease pattern (PCP). 60:
Although not intended as a substitute for diagrams, folding from crease patterns is starting to gain in popularity, partly because of the challenge of being able to 'crack' the pattern, and also partly because the crease pattern is often the only resource available to fold a given model, should the
40:, who used them to record how their models were made. This allowed the more prolific designers to keep track of all their models, and soon crease patterns began to be used as a means for communication of ideas between designers. After a few years of this sort of use, designers such as 56:
began to design using crease patterns. This allowed them to create with increasing levels of complexity, and the art of origami reached unprecedented levels of realism. Now most higher-level models are accompanied by crease patterns.
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diagram that consists of all or most of the creases in the final model, rendered into one image. This is useful for diagramming complex and super-complex models, where the model is often not simple enough to diagram efficiently.
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Herng Yi, Cheng; Kang Hao, Cheong (2012). "Designing crease patterns for polyhedra by composing right frusta".
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The use of crease patterns originated with designers such as
445: 392: 371: 314: 268: 237: 181: 159: 8: 166: 152: 144: 15: 74: 28:(commonly referred to as a CP) is an 7: 401:Geometric Exercises in Paper Folding 422:A History of Folding in Mathematics 14: 322:Alexandrov's uniqueness theorem 139:Crease patterns at Lang Origami 20:Crease pattern for a swordsman 1: 260:Regular paperfolding sequence 84:"Crease Patterns for Folders" 408:Geometric Folding Algorithms 175:Mathematics of paper folding 580: 458:Margherita Piazzola Beloch 229:Yoshizawa–Randlett system 122:10.1016/j.cad.2011.11.002 429:Origami Polyhedra Design 63:sequenced crease pattern 219:Napkin folding problem 88:Robert J. Lang Origami 21: 110:Computer-Aided Design 19: 379:Fold-and-cut theorem 335:Steffen's polyhedron 199:Huzita–Hatori axioms 189:Big-little-big lemma 69:Notes and references 327:Flexible polyhedron 508:Toshikazu Kawasaki 331:Bricard octahedron 306:Yoshimura buckling 204:Kawasaki's theorem 22: 551: 550: 415:Geometric Origami 286:Paper bag problem 209:Maekawa's theorem 571: 488:David A. Huffman 453:Roger C. Alperin 356:Source unfolding 224:Pureland origami 168: 161: 154: 145: 126: 125: 105: 99: 98: 96: 94: 79: 46:Meguro Toshiyuki 579: 578: 574: 573: 572: 570: 569: 568: 554: 553: 552: 547: 533:Joseph O'Rourke 468:Robert Connelly 441: 388: 367: 310: 296:Schwarz lantern 281:Modular origami 264: 233: 177: 172: 135: 130: 129: 107: 106: 102: 92: 90: 81: 80: 76: 71: 12: 11: 5: 577: 575: 567: 566: 556: 555: 549: 548: 546: 545: 540: 538:Tomohiro Tachi 535: 530: 525: 520: 515: 513:Robert J. Lang 510: 505: 503:Humiaki Huzita 500: 495: 490: 485: 483:Rona Gurkewitz 480: 478:Martin Demaine 475: 470: 465: 460: 455: 449: 447: 443: 442: 440: 439: 432: 425: 418: 411: 404: 396: 394: 390: 389: 387: 386: 381: 375: 373: 369: 368: 366: 365: 364: 363: 361:Star unfolding 358: 353: 348: 338: 324: 318: 316: 312: 311: 309: 308: 303: 298: 293: 288: 283: 278: 272: 270: 266: 265: 263: 262: 257: 252: 247: 241: 239: 235: 234: 232: 231: 226: 221: 216: 211: 206: 201: 196: 194:Crease pattern 191: 185: 183: 179: 178: 173: 171: 170: 163: 156: 148: 142: 141: 134: 133:External links 131: 128: 127: 116:(4): 331–342. 100: 82:Lang, Robert. 73: 72: 70: 67: 42:Robert J. Lang 26:crease pattern 13: 10: 9: 6: 4: 3: 2: 576: 565: 562: 561: 559: 544: 541: 539: 536: 534: 531: 529: 526: 524: 521: 519: 516: 514: 511: 509: 506: 504: 501: 499: 496: 494: 491: 489: 486: 484: 481: 479: 476: 474: 471: 469: 466: 464: 461: 459: 456: 454: 451: 450: 448: 444: 438: 437: 433: 431: 430: 426: 424: 423: 419: 417: 416: 412: 410: 409: 405: 403: 402: 398: 397: 395: 391: 385: 384:Lill's method 382: 380: 377: 376: 374: 372:Miscellaneous 370: 362: 359: 357: 354: 352: 349: 347: 344: 343: 342: 339: 336: 332: 328: 325: 323: 320: 319: 317: 313: 307: 304: 302: 299: 297: 294: 292: 291:Rigid origami 289: 287: 284: 282: 279: 277: 274: 273: 271: 269:3d structures 267: 261: 258: 256: 253: 251: 248: 246: 243: 242: 240: 238:Strip folding 236: 230: 227: 225: 222: 220: 217: 215: 212: 210: 207: 205: 202: 200: 197: 195: 192: 190: 187: 186: 184: 180: 176: 169: 164: 162: 157: 155: 150: 149: 146: 140: 137: 136: 132: 123: 119: 115: 111: 104: 101: 89: 85: 78: 75: 68: 66: 64: 58: 55: 51: 47: 43: 39: 34: 31: 27: 18: 543:Eve Torrence 473:Erik Demaine 434: 427: 420: 413: 406: 399: 393:Publications 255:Möbius strip 245:Dragon curve 193: 182:Flat folding 113: 109: 103: 93:19 September 91:. Retrieved 87: 77: 59: 35: 25: 23: 528:Kōryō Miura 523:Jun Maekawa 498:Kôdi Husimi 214:Map folding 54:Peter Engel 50:Jun Maekawa 518:Anna Lubiw 351:Common net 276:Miura fold 38:Neal Elias 436:Origamics 315:Polyhedra 558:Category 493:Tom Hull 463:Yan Chen 346:Blooming 250:Flexagon 564:Origami 30:origami 446:People 301:Sonobe 95:2023 52:and 341:Net 118:doi 560:: 333:, 114:44 112:. 86:. 48:, 44:, 24:A 337:) 329:( 167:e 160:t 153:v 124:. 120:: 97:.

Index


origami
Neal Elias
Robert J. Lang
Meguro Toshiyuki
Jun Maekawa
Peter Engel
sequenced crease pattern
"Crease Patterns for Folders"
doi
10.1016/j.cad.2011.11.002
Crease patterns at Lang Origami
v
t
e
Mathematics of paper folding
Big-little-big lemma
Crease pattern
Huzita–Hatori axioms
Kawasaki's theorem
Maekawa's theorem
Map folding
Napkin folding problem
Pureland origami
Yoshizawa–Randlett system
Dragon curve
Flexagon
Möbius strip
Regular paperfolding sequence
Miura fold

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