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Combinatorial mirror symmetry

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The combinatorial mirror duality for Calabi–Yau hypersurfaces in toric varieties has been generalized by Lev Borisov in the case of Calabi–Yau complete intersections in Gorenstein toric
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one can consider the polar duality for reflexive polytopes as a special case of the duality for convex Gorenstein cones and of the duality for Gorenstein polytopes.
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A. Varchenko (1990), "Multidimensional hypergeometric functions in conformal field theory, algebraic K-theory, algebraic geometry", Proc. ICM-90, 281–300.
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Batyrev, V.; van Straten, D. (1995). "Generalized hypergeometric functions and rational curves on Calabi–Yau complete intersections in toric varieties".
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Candelas, P.; de la Ossa, X.; Green, P.; Parkes, L. (1991). "A pair of Calabi–Yau manifolds as an exactly soluble superconformal field theory".
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M. Kreuzer, H. Skarke (2002), "Complete classification of reflexive polyhedra in four dimensions", Advances Theor. Math. Phys., 4, 1209–1230
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M. Kreuzer, H. Skarke (1998) "Classification of reflexive polyhedra in three dimensions", Advances Theor. Math. Phys., 2, 847–864
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I. Gelfand, M. Kapranov, S. Zelevinski (1989), "Hypergeometric functions and toric varieties", Funct. Anal. Appl. 23, no. 2, 94–10.
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L. Borisov (1994), "Towards the Mirror Symmetry for Calabi–Yau Complete intersections in Gorenstein Toric Fano Varieties",
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et al. for computing the number of rational curves on Calabi–Yau quintic 3-folds can be applied to arbitrary Calabi–Yau
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M. Kreuzer, H. Skarke (1997), "On the classification of reflexive polyhedra", Comm. Math. Phys., 185, 495–508
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Batyrev, V. (1994). "Dual polyhedra and mirror symmetry for Calabi–Yau hypersurfaces in toric varieties".
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Batyrev, V.; Borisov, L. (1997). "Dual cones and mirror symmetry for generalized Calabi–Yau manifolds".
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A mathematical explanation of the combinatorial mirror symmetry has been obtained by Lev Borisov via
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that states a Knowledge editor's personal feelings or presents an original argument about a topic.
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L. Borisov (2001), "Vertex algebras and mirror symmetry", Comm. Math. Phys., 215, no. 3, 517–557.
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Batyrev, V.; Nill, B. (2008). "Combinatorial aspects of mirror symmetry".
1361: 1273: 1173: 1290: 964:-isomorphism is closely related to the enumeration of all solutions 149:. Statements consisting only of original research should be removed. 1116:. The classification of 4-dimensional reflexive polytopes up to a 1043:{\displaystyle (k_{0},k_{1},\ldots ,k_{d})\in \mathbb {N} ^{d+1}} 282: 1109:{\displaystyle {\frac {1}{k_{0}}}+\cdots +{\frac {1}{k_{d}}}=1} 176: 114: 56: 15: 1435:"Combinatorics and Mirror Symmetry: Results and Perspectives" 74:
personal reflection, personal essay, or argumentative essay
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is the set of lattice points in a reflexive polytope
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Skarke, Calabi–Yau data, 534:-hypergeometric functions introduced by 506:and Duco van Straten that the method of 1218: 904:The combinatorial classification of 1183:which are algebraic counterparts of 1160:using hypersurfaces in 4-dimensional 7: 249:A purely combinatorial approach to 1149:{\displaystyle GL(4,\mathbb {Z} )} 957:{\displaystyle GL(d,\mathbb {Z} )} 702:{\displaystyle GL(d,\mathbb {Z} )} 620:there exists only a finite number 14: 31:This article has multiple issues. 181: 119: 61: 20: 1207:Mirror symmetry (string theory) 897:{\displaystyle N(4)=473800776.} 600:For any fixed natural number 337:-dimensional convex polyhedron 39:or discuss these issues on the 1143: 1129: 1016: 971: 951: 937: 885: 879: 850: 844: 815: 809: 780: 774: 725: 719: 696: 682: 636: 630: 446: 432: 382: 364: 1: 1228:Journal of Algebraic Geometry 464:{\displaystyle (P^{*})^{*}=P} 1326:10.1016/0550-3213(91)90292-6 1050:of the diophantine equation 257:using the polar duality for 1202:Homological mirror symmetry 145:the claims made and adding 1537: 709:-isomorphism. The number 395:-dimensional faces of the 862:{\displaystyle N(3)=4319} 1390:Contemporary Mathematics 1185:conformal field theories 1181:vertex operator algebras 595:dual cone and polar cone 493:convex lattice polytopes 317:-dimensional faces of a 827:{\displaystyle N(2)=16} 757:{\displaystyle d\leq 4} 593:. Using the notions of 538:, Michail Kapranov and 388:{\displaystyle (d-k-1)} 196:, as no other articles 1402:10.1090/conm/452/08770 1150: 1110: 1044: 958: 918: 898: 863: 828: 793: 792:{\displaystyle N(1)=1} 758: 732: 703: 663: 643: 614: 580: 560: 542:(see also the talk of 528: 514:using the generalized 512:complete intersections 485: 465: 419: 389: 351: 331: 311: 271: 83:by rewriting it in an 1243:"Reflexive polytopes" 1164:which are Gorenstein 1151: 1111: 1045: 959: 919: 899: 864: 829: 794: 759: 733: 704: 664: 644: 615: 581: 561: 529: 486: 466: 420: 418:{\displaystyle P^{*}} 390: 352: 332: 312: 272: 1511:Mathematical physics 1433:Kreuzer, M. (2008). 1158:Calabi–Yau manifolds 1120: 1054: 968: 928: 908: 873: 838: 803: 768: 742: 731:{\displaystyle N(d)} 713: 673: 653: 642:{\displaystyle N(d)} 624: 604: 570: 550: 518: 475: 429: 402: 361: 341: 321: 301: 261: 1375:Mirror Symmetry, II 1283:1995CMaPh.168..493B 544:Alexander Varchenko 502:It was observed by 497:reflexive polytopes 1506:Algebraic geometry 1291:10.1007/BF02101841 1170:Maximilian Kreuzer 1146: 1106: 1040: 954: 914: 894: 859: 824: 789: 754: 738:is known only for 728: 699: 659: 639: 610: 576: 556: 524: 481: 461: 415: 385: 347: 327: 307: 267: 215:for suggestions. 205:to this page from 130:possibly contains 85:encyclopedic style 72:is written like a 1314:Nuclear Physics B 1098: 1072: 917:{\displaystyle d} 662:{\displaystyle d} 613:{\displaystyle d} 579:{\displaystyle P} 559:{\displaystyle A} 540:Andrei Zelevinsky 527:{\displaystyle A} 495:which are called 484:{\displaystyle d} 350:{\displaystyle P} 330:{\displaystyle d} 310:{\displaystyle k} 270:{\displaystyle d} 253:was suggested by 247: 246: 239: 229: 228: 175: 174: 167: 132:original research 113: 112: 105: 54: 1528: 1516:Duality theories 1490: 1487: 1481: 1475: 1469: 1466: 1460: 1457: 1451: 1448: 1442: 1441: 1439: 1430: 1424: 1423: 1385: 1379: 1378: 1370: 1364: 1362:alg-geom/9310001 1354: 1348: 1345: 1339: 1336: 1330: 1329: 1309: 1303: 1302: 1276: 1274:alg-geom/9307010 1261:Comm. 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mirror symmetry
Victor Batyrev
Platonic solids
cube
octahedron
dodecahedron
icosahedron
dual polyhedron
convex lattice polytopes
reflexive polytopes
Victor Batyrev

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