2014
DOI: 10.1016/j.aim.2014.02.026
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Exact WKB analysis of a Schrödinger equation with a merging triplet of two simple poles and one simple turning point, I — Its WKB-theoretic transformation to the Mathieu equation

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Cited by 13 publications
(8 citation statements)
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“…Later developments focused mainly on understanding WKB-theoretic transformation series (first introduced in [AKT91]) that transform a given differential equation in a suitable neighbourhood of critical WKB trajectories (or Stokes lines) to one in standard form whose WKB-theoretic properties are better understood. A very partial list of contributions includes the works by Aoki, Kamimoto, Kawai, Koike, Sasaki, and Takei, [AKT09, KK11, KKT12, KK13,Sas13,KKT14a]. Parallel to this activity has been the classification of WKB geometry (or Stokes graphs), which includes the works by Aoki, Kawai, Takei, Tanda, [AKT01, Tak07, AT13, Tak17], as well as a detailed analysis of some WKB-theoretic properties of special classes of equations, which includes the works by Aoki, Kamimoto, Kawai, Koike, and Takei [KT11, KKKT11, ATT14, KKT14b, Tan15, KKK16, ATT16, AT16, AIT19].…”
Section: Resultsmentioning
confidence: 99%
“…Later developments focused mainly on understanding WKB-theoretic transformation series (first introduced in [AKT91]) that transform a given differential equation in a suitable neighbourhood of critical WKB trajectories (or Stokes lines) to one in standard form whose WKB-theoretic properties are better understood. A very partial list of contributions includes the works by Aoki, Kamimoto, Kawai, Koike, Sasaki, and Takei, [AKT09, KK11, KKT12, KK13,Sas13,KKT14a]. Parallel to this activity has been the classification of WKB geometry (or Stokes graphs), which includes the works by Aoki, Kawai, Takei, Tanda, [AKT01, Tak07, AT13, Tak17], as well as a detailed analysis of some WKB-theoretic properties of special classes of equations, which includes the works by Aoki, Kamimoto, Kawai, Koike, and Takei [KT11, KKKT11, ATT14, KKT14b, Tan15, KKK16, ATT16, AT16, AIT19].…”
Section: Resultsmentioning
confidence: 99%
“…For more recent and advanced works related to WKB analysis and local/global studies of solutions to linear ODEs near turning points, we refer to contributions related to the 1D Schrödinger equation with simple poles [11], with merging pairs of simple poles and turning points [12], and with merging triplet of poles and turning points [13,14] and for analytic continuation properties of the Borel transform (resurgence) of WKB expansions in the problem of confluence of two simple turning points we quote [15]. Concerning the structure of singular formal solutions to singularly perturbed linear systems of ODEs with turning points we point out [16] solving an old question of Wasow.…”
Section: ̂(mentioning
confidence: 99%
“…Keeping these previous works in mind, to investigate the relation between BPS structures and TR, we study the Stokes structures of the Voros symbols for the quantum curves constructed through TR from the spectral curves of hypergeometric type obtained in [IKoT1,IKoT2], and compare those to the BPS Riemann-Hilbert problems associated with the BPS structure studied in our previous work [IK]. We note here that such analysis of the Stokes phenomenon for the Voros symbols of the (confluent) hypergeometric differential equations are not new; some special cases (e.g., for specific ν) have already been studied in the exact WKB literature (see [AT,ATT1,AIT,T,KoT,KKKoT,KKT] for example). We also note that Stokes structures of the Voros symbols for Schrödinger-type equations were also studied in [DDP1,IN1] in a general setting.…”
Section: Introductionmentioning
confidence: 63%
“…As we mentioned in §3.4, Γ * is generated by β s , s ∈ P ev , which is a class represented by a path from s − to s + . The path Voros coefficients of the hypergeometric differential equations for those paths were studied in[SS,T,KoT, AT,KKT,ATT1,AIT,IKoT1,IKoT2] etc. Let us recall and rewrite the formula for their explicit expression, following[IKoT2,IK].…”
mentioning
confidence: 99%