On the Moduli of a quantized loop in P and KdV flows: Study of hyperelliptic curves as an extension of Euler's perspective of elastica I
Shigeki Matsutani, Yoshihiro Onishi
Abstract
Quantization needs evaluation of all of states of a quantized object rather than its stationary states with respect to its energy. In this paper, we have investigated moduli of a quantized elastica, a quantized loop with an energy functional associated with the Schwarz derivative, on a Riemann sphere . Then it is proved that its moduli space is decomposed to a set of equivalent classes determined by flows obeying the Korteweg-de Vries (KdV) hierarchy which conserve the energy. Since the flow obeying the KdV hierarchy has a natural topology, it induces topology in the moduli space . Using the topology, is classified. Studies on a loop space in the category of topological spaces are well-established and its cohomological properties are well-known. As the moduli space of a quantized elastica can be regarded as a loop space in the category of differential geometry , we also proved an existence of a functor between a triangle category related to a loop space in Top and that in using the induced topology. As Euler investigated the elliptic integrals and its moduli by observing a shape of classical elastica on , this paper devotes relations between hyperelliptic curves and a quantized elastica on as an extension of Euler's perspective of elastica.
Create a lesson
Related papers
Polynomial Maximal Surfaces in H2,2 and Spherical Polygons
Parker Evans, Alex Moriani
Stratification of opers with apparent singularities and isomonodromic bubbling
Duong Dinh, Troy Figiel, Joerg Teschner
Extending Donaldson's HyperKähler Structure via Minimal Surfaces into PSL(2,C)
Christian El Emam, Filippo Mazzoli, Nicholas Rungi et al.
Observing minimal submanifolds with isolated singularities on open sets of metrics
Alessandro Carlotto, Yangyang Li, Zhihan Wang
The Hopf conjecture with T3-symmetry
Jan Nienhaus, Dennis Wulle
Schwarz P and Schwarz D as free-boundary minimal disks in a tetragonal disphenoid: exact areas
Steven Finch