1994
DOI: 10.1142/s0217732394002987
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Hyper-Kähler Metrics Building and Integrable Models

Abstract: Methods developed for the analysis of integrable systems are used to study the problem of hyper-Kähler metrics building as formulated in D=2, N=4 supersymmetric harmonic superspace. We show in particular that the constraint equation [Formula: see text] and its Toda-like generalizations are integrable. Explicit solutions together with the conserved currents generating the symmetry responsible for the integrability of these equations are given. Other features are also discussed.

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Cited by 14 publications
(17 citation statements)
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“…this result is established in [2] and lead to extract important physical and mathematical properties. We derived the following non linear differential equation of motion λ ∂ ++2 ω − ξ ++2 exp 2λω = 0 (16) defining the integrable Liouville field theory.…”
Section: The Hs Liouville Potentialmentioning
confidence: 90%
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“…this result is established in [2] and lead to extract important physical and mathematical properties. We derived the following non linear differential equation of motion λ ∂ ++2 ω − ξ ++2 exp 2λω = 0 (16) defining the integrable Liouville field theory.…”
Section: The Hs Liouville Potentialmentioning
confidence: 90%
“…The problem of hyperKähler metrics building is an interesting question of hyperKähler geometry that can be nicely solved in the harmonic superspace (HS) [4,5,2] if one knows how to solve the following nonlinear differential equations on the sphere S 2 :…”
Section: General Settingmentioning
confidence: 99%
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“…This linearised equation is remarkably interpreted as the flatness condition of the curvature F +− of two component gauge fields given by A ± . In this gauge language with a Lax pair (A + , A − ) valued in the Lie algebra of ADE, the curvature F +− is given by the commutator [∂ + + A + , ∂ − + A − ] and the flatness condition F +− = 0 leads precisely the above Toda field equations [58,59] recovering the Liouville theory as just the leading r = 1 case. For the case of the geometric engineering of N = 2 supersymmetric QFT 4 's, there is also a classification based on Lie algebras.…”
Section: Qk and Global Isometriesmentioning
confidence: 99%
“…To solve these equations of motion, one start first by solving the Liouville-like equation of motion Eq. (3.5) whose solution[11], originated from integrability and conformal symmetry in two dimensions, reads in the HS language as[10]…”
mentioning
confidence: 99%