A pair of Calabi-Yau manifolds as an exactly soluble superconformal theory. (English) Zbl 1098.32506

Summary: We compute the prepotentials and the geometry of the moduli spaces for a Calabi-Yau manifold and its mirror. In this way we obtain all the sigma model corrections to the Yukawa couplings and moduli space metric for the original manifold. The moduli space is found to be subject to the action of a modular group which, among other operations, exchanges large and small values of the radius, though the action on the radius is not as simple as \(R \to 1/R\). It is also shown that the quantum corrections to the coupling decompose into a sum over instanton contributions and moreover that this sum converges. In particular there are no ‘sub-instanton’ corrections. This sum over instantons points to a deep connection between the modular group and the rational curves of the Calabi-Yau manifold. The burden of the present work is that a mirror pair of Calabi-Yau manifolds is an exactly soluble superconformal theory, at least as far as the massless sector is concerned. Mirror pairs are also more general than exactly soluble models that have hitherto been discussed since we solve the theory for all points of the moduli space.


32G20 Period matrices, variation of Hodge structure; degenerations
14J30 \(3\)-folds
32G05 Deformations of complex structures
32G81 Applications of deformations of analytic structures to the sciences
81T30 String and superstring theories; other extended objects (e.g., branes) in quantum field theory
81T40 Two-dimensional field theories, conformal field theories, etc. in quantum mechanics
14J15 Moduli, classification: analytic theory; relations with modular forms
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[1] Candelas, P.; Lynker, M.; Schimmrigk, R., Nucl. Phys., B341, 383 (1990)
[3] Aspinwall, P.; Lütken, A.; Ross, G. G., Phys. Lett., B241, 373 (1990)
[4] Strominger, A.; Witten, E., Commun. Math. Phys., 101, 341 (1985)
[5] Dine, M.; Seiberg, N., Phys. Rev. Lett., 57, 2625 (1986)
[6] Dine, M.; Seiberg, N.; Wen, X. G.; Witten, E., Nucl. Phys., B289, 319 (1987)
[7] Distler, J.; Greene, B. R., Nucl. Phys., B309, 295 (1988)
[9] Lerche, W.; Vafa, C.; Warner, N. P., Nucl. Phys., B324, 427 (1989)
[10] Candelas, P., Nucl. Phys., B298, 458 (1988)
[11] Shapere, A.; Wilczek, F., Nucl. Phys., B320, 669 (1989)
[12] Ferrara, S.; Lüst, D.; Theisen, S., Phys. Lett., B242, 39 (1990)
[13] Kollar, J., Bull. Am. Math. Soc., 17, 211 (1987)
[14] Grisaru, M. T.; van de Ven, A.; Zanon, D., Nucl. Phys., B277, 409 (1986)
[17] Candelas, P.; Green, P.; Hübsch, T., Nucl. Phys., B330, 49 (1990)
[18] Candelas, P.; de la Ossa, X. C., Nucl. Phys., B342, 246 (1990)
[19] Bryant, R.; Griffiths, P., (Progress in mathematics 3, 36 (1983), Birkhäuser: Birkhäuser Boston), 77
[22] Erdélyi, A.; Oberhettinger, F.; Magnus, W.; Tricomi, F. G., Higher transcendental functions (1953), McGraw-Hill: McGraw-Hill New York · Zbl 0052.29502
[23] Arnold, V. I.; Gusein-Zade, S. M.; Varchenko, A. N., Singularities of differentiable maps, Vol. II, (Monographs in Mathematics, 83 (1988), Birkhäuser: Birkhäuser Basel) · Zbl 1297.32001
[24] Slater, L. J., Generalized hypergeometric functions (1966), Cambridge Univ. Press: Cambridge Univ. Press Cambridge · Zbl 0135.28101
[25] Gepner, D., Phys. Lett., B199, 380 (1987)
[26] Freeman, M. D.; Pope, C. N.; Sohnius, M. F.; Stelle, K. S., Phys. Lett., B178, 199 (1986)
[27] Aspinwall, P.; Lütken, A., Quantum algebraic geometry of superstring compactifications, Oxford University report (September 1990)
[28] Katz, S., Compositio Math., 60, 151 (1986)
[29] Harris, J., Duke Math. J., 46, 685 (1979)
[30] Clemens, H., Some results on Abel-Jacobi mappings in topics in transcendental algebraic geometry (1984), Princeton Univ. Press: Princeton Univ. Press Princeton
[31] Bender, C. M.; Orzag, S. A., Advanced mathematics for scientists and engineers (1978), McGraw-Hill: McGraw-Hill New York
[32] Candelas, P.; Horowitz, G.; Strominger, A.; Witten, E., Nucl. Phys., B258, 46 (1985)
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