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Convex Polyhedra (book)

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213:. A generalization of this theorem implies that the same is true for the perimeters and directions of the faces. Chapter 9 concerns the reconstruction of three-dimensional polyhedra from a two-dimensional perspective view, by constraining the vertices of the polyhedron to lie on rays through the point of view. The original Russian edition of the book concludes with two chapters, 10 and 11, related to 268:
to students and professional mathematicians as an introduction to the mathematics of convex polyhedra. He also writes that, over 50 years after its original publication, "it still remains of great interest for specialists", after being updated to include many new developments and to list new open
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was long overdue. He calls the material on Alexandrov's uniqueness theorem "the star result in the book", and he writes that the book "had a great influence on countless Russian mathematicians". Nevertheless, he complains about the book's small number of exercises, and about an inconsistent level
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The 2005 English edition adds comments and bibliographic information regarding many problems that were posed as open in the 1950 edition but subsequently solved. It also includes in a chapter of supplementary material the translations of three related articles by Volkov and Shor, including a
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The main focus of the book is on the specification of geometric data that will determine uniquely the shape of a three-dimensional convex polyhedron, up to some class of geometric transformations such as congruence or similarity. It considers both bounded polyhedra
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on the impossibility of labeling the edges of a polyhedron by positive and negative signs so that each vertex has at least four sign changes, the remainder of chapter 2 outlines the content of the remaining book. Chapters 3 and 4 prove
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The 1950 Russian edition of the book included 11 chapters. The first chapter covers the basic topological properties of polyhedra, including their topological equivalence to spheres (in the bounded case) and
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writes that, for a work describing significant developments in the theory of convex polyhedra that was however hard to access in the west, the English translation of
192: 221:, and describing the differences between the rigidity and infinitesimal rigidity of polyhedra, as developed analogously to Cauchy's rigidity theorem by 168: 194:. Chapter 5 considers the metric spaces defined in the same way that are topologically a disk rather than a sphere, and studies the 432: 229:
simplified proof of Pogorelov's theorems generalizing Alexandrov's uniqueness theorem to non-polyhedral convex surfaces.
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presentation that fails to distinguish important and basic results from specialized technicalities.
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a convex polyhedron is uniquely determined by the areas and directions of its faces
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of finite sets of points) and unbounded polyhedra (intersections of finitely many
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in 1958. An updated edition, translated into English by Nurlan S. Dairbekov,
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assumes a significant level of background knowledge in material including
131: 514: 463: 155:, characterizing the surface geometry of polyhedra as being exactly the 253: 222: 97:, and originally published in Russian in 1950, under the title 201:
Chapters 6 through 8 of the book are related to a theorem of
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1950 book on geometry by Aleksandr Danilovich Aleksandrov
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Although intended for a broad mathematical audience,
177: 186: 159:that are topologically spherical locally like the 117:, L. A. Shor, and Yu. A. Volkov, was published as 525: 113:and Alexei B. Sossinsky, with added material by 163:except at a finite set of points of positive 423: 421: 419: 417: 390: 388: 386: 384: 382: 380: 306: 304: 302: 300: 298: 296: 294: 169:Descartes' theorem on total angular defect 489:Ruane, P. N. (November 2006), "Review of 333: 232: 427: 171:that the total angular defect should be 484: 482: 480: 414: 377: 291: 526: 456:10.1137/SIREAD000048000001000149000001 339: 488: 264:. Reviewer Vasyl Gorkaviy recommends 477: 394: 310: 217:that polyhedra with flat faces form 101:. It was translated into German by 13: 93:, written by Soviet mathematician 14: 560: 362: 95:Aleksandr Danilovich Aleksandrov 89:is a book on the mathematics of 29:Aleksandr Danilovich Aleksandrov 153:Alexandrov's uniqueness theorem 1: 284: 279:List of books about polyhedra 111:Semën Samsonovich Kutateladze 50:Semën Samsonovich Kutateladze 395:Gorkaviy, Vasyl, "Review of 209:, with a new proof based on 196:flexible polyhedral surfaces 121:by Springer-Verlag in 2005. 7: 272: 10: 565: 144:Euler's polyhedral formula 507:10.1017/S002555720018074X 124: 72: 64: 56: 44: 34: 24: 495:The Mathematical Gazette 52:and Alexei B. Sossinsky 549:2005 non-fiction books 544:1950 non-fiction books 345:Выпуклые многогранники 316:Выпуклые многогранники 269:problems in the area. 233:Audience and reception 188: 99:Выпуклые многогранники 39:Выпуклые многогранники 258:differential geometry 189: 187:{\displaystyle 4\pi } 48:Nurlan S. Dairbekov, 320:Mathematical Reviews 211:invariance of domain 175: 146:. After a lemma of 35:Original title 21: 184: 19: 539:Mathematics books 203:Hermann Minkowski 82: 81: 20:Convex Polyhedra 556: 518: 517: 501:(519): 557–558, 491:Convex Polyhedra 486: 475: 474: 472: 466:, archived from 441: 435:Convex Polyhedra 429:Connelly, Robert 425: 412: 411: 397:Convex Polyhedra 392: 375: 366: 360: 359: 337: 331: 330: 308: 266:Convex Polyhedra 250:Convex Polyhedra 242:Convex Polyhedra 219:rigid structures 215:Cauchy's theorem 193: 191: 190: 185: 119:Convex Polyhedra 115:Victor Zalgaller 107:Konvexe Polyeder 91:convex polyhedra 86:Convex Polyhedra 74:Publication date 22: 18: 564: 563: 559: 558: 557: 555: 554: 553: 524: 523: 522: 521: 487: 478: 470: 439: 426: 415: 393: 378: 367: 363: 338: 334: 309: 292: 287: 275: 238:Robert Connelly 235: 176: 173: 172: 161:Euclidean plane 148:Augustin Cauchy 127: 75: 17: 12: 11: 5: 562: 552: 551: 546: 541: 536: 520: 519: 476: 450:(1): 157–160, 431:(March 2006), 413: 376: 361: 341:Kaloujnine, L. 332: 289: 288: 286: 283: 282: 281: 274: 271: 262:linear algebra 234: 231: 183: 180: 165:angular defect 126: 123: 80: 79: 76: 73: 70: 69: 66: 62: 61: 58: 54: 53: 46: 42: 41: 36: 32: 31: 26: 15: 9: 6: 4: 3: 2: 561: 550: 547: 545: 542: 540: 537: 535: 532: 531: 529: 516: 512: 508: 504: 500: 496: 492: 485: 483: 481: 473:on 2017-08-30 469: 465: 461: 457: 453: 449: 445: 438: 436: 430: 424: 422: 420: 418: 410: 406: 402: 398: 391: 389: 387: 385: 383: 381: 374: 370: 365: 358: 354: 351:(in German), 350: 346: 343:, "Review of 342: 336: 329: 325: 321: 317: 314:, "Review of 313: 307: 305: 303: 301: 299: 297: 295: 290: 280: 277: 276: 270: 267: 263: 259: 255: 251: 246: 243: 239: 230: 226: 224: 220: 216: 212: 208: 204: 199: 198:that result. 197: 181: 178: 170: 166: 162: 158: 157:metric spaces 154: 149: 145: 139: 137: 133: 122: 120: 116: 112: 108: 104: 100: 96: 92: 88: 87: 77: 71: 67: 63: 59: 55: 51: 47: 43: 40: 37: 33: 30: 27: 23: 498: 494: 490: 468:the original 447: 443: 434: 400: 396: 364: 348: 344: 335: 319: 315: 312:Busemann, H. 265: 249: 247: 241: 236: 227: 200: 140: 132:convex hulls 128: 118: 106: 103:Wilhelm Süss 98: 85: 84: 83: 38: 444:SIAM Review 433:"Review of 136:half-spaces 68:Mathematics 528:Categories 409:1067.52011 373:0079.16303 357:0041.50901 285:References 167:, obeying 45:Translator 534:Polyhedra 182:π 515:40378241 464:20453762 273:See also 254:topology 223:Max Dehn 57:Language 328:0040677 60:Russian 513:  462:  407:  401:zbMATH 371:  355:  349:zbMATH 326:  260:, and 125:Topics 25:Author 511:JSTOR 471:(PDF) 460:JSTOR 440:(PDF) 205:that 65:Genre 78:1950 503:doi 493:", 452:doi 405:Zbl 399:", 369:Zbl 353:Zbl 347:", 318:", 138:). 105:as 530:: 509:, 499:90 497:, 479:^ 458:, 448:48 446:, 442:, 416:^ 403:, 379:^ 324:MR 322:, 293:^ 256:, 225:. 505:: 454:: 437:" 179:4 130:(

Index

Aleksandr Danilovich Aleksandrov
Semën Samsonovich Kutateladze
convex polyhedra
Aleksandr Danilovich Aleksandrov
Wilhelm Süss
Semën Samsonovich Kutateladze
Victor Zalgaller
convex hulls
half-spaces
Euler's polyhedral formula
Augustin Cauchy
Alexandrov's uniqueness theorem
metric spaces
Euclidean plane
angular defect
Descartes' theorem on total angular defect
flexible polyhedral surfaces
Hermann Minkowski
a convex polyhedron is uniquely determined by the areas and directions of its faces
invariance of domain
Cauchy's theorem
rigid structures
Max Dehn
Robert Connelly
topology
differential geometry
linear algebra
List of books about polyhedra

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