2006
DOI: 10.1090/surv/128/03
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Inverse monodromy problem and Riemann-Hilbert factorization

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Cited by 33 publications
(80 citation statements)
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“…Solving the equation, we have 15) where the constant α 1 is determined by comparing both sides at s = 0. For the chosen initial value r (0) = 1 α , the constant vanishes, thus we get Λ = 0, which is the third-order equation (2.10).…”
Section: Proof Of Proposition 2: Reduction To Piiimentioning
confidence: 99%
See 1 more Smart Citation
“…Solving the equation, we have 15) where the constant α 1 is determined by comparing both sides at s = 0. For the chosen initial value r (0) = 1 α , the constant vanishes, thus we get Λ = 0, which is the third-order equation (2.10).…”
Section: Proof Of Proposition 2: Reduction To Piiimentioning
confidence: 99%
“…The vanishing lemma states that the null space is trivial, which implies that the singular integral equation (and thus Ψ 0 ) is solvable as a result of the Fredholm alternative theorem. More details can be found in [22,Proposition 2.4]; see also [10,12,15,17] for standard methods connecting RH problems with integral equations. Now we have the following solvability result:…”
Section: Solvability Of the Model Riemann-hilbert Problemmentioning
confidence: 99%
“…Here S = −i/ √ 2π is the Stokes constant computed in [29,50], and both of the branches give the same result. Substituting (4.20), (4.21) and integrating q HM (−z) 2 twice in z, one finally obtains the asymptotics of the free energy F (1, −z) for z → ∞: …”
Section: Jhep09(2014)104mentioning
confidence: 78%
“…Properties of this solution to the Painlevé II equation (3.22), called the Hastings-McLeod solution q HM (s) [28], are extensively studied in the literature (see e.g. [29]). Thus we readily have the full nonperturbative free energy of the SUSY double-well matrix model in the form of (3.21) with ξ = 1.…”
Section: Free Energy and Instanton Summentioning
confidence: 99%
“…In terms of definition (ii), we have a real τ (x) which is associated with a compactly supported real potential q(x) = −2 In random matrix theory, tau functions are introduced alongside integrable kernels that describe the distribution of eigenvalues of random matrices, especially the generalized unitary ensemble; see [14,26,31]. Let X be a n × n complex Hermitian matrix, let λ = (λ 1 ≤ λ 2 ≤ .…”
Section: Definition (I)mentioning
confidence: 99%