Cargando…

Wave Dynamical Chaos in Superconducting Microwave Cavities

During the last few years we have studied the chaotic behavior of special Euclidian geometries, so-called billiards, from the quantum or in more general sense "wave dynamical" point of view. Due to the equivalence between the stationary Schroedinger equation and the classical Helmholtz equ...

Descripción completa

Detalles Bibliográficos
Autores principales: Rehfeld, H, Alt, H, Dembowski, C, Gräf, H D, Hofferbert, R, Richter, A, Lengeler, Herbert
Lenguaje:eng
Publicado: 1997
Materias:
Acceso en línea:http://cds.cern.ch/record/318351
_version_ 1780890482632556544
author Rehfeld, H
Alt, H
Dembowski, C
Gräf, H D
Hofferbert, R
Richter, A
Lengeler, Herbert
author_facet Rehfeld, H
Alt, H
Dembowski, C
Gräf, H D
Hofferbert, R
Richter, A
Lengeler, Herbert
author_sort Rehfeld, H
collection CERN
description During the last few years we have studied the chaotic behavior of special Euclidian geometries, so-called billiards, from the quantum or in more general sense "wave dynamical" point of view. Due to the equivalence between the stationary Schroedinger equation and the classical Helmholtz equation in the two-dimensional case (plain billiards), it is possible to simulate "quantum chaos" with the help of macroscopic, superconducting microwave cavities. Using this technique we investigated spectra of three billiards from the family of Pascal's Snails (Robnik-Billiards) with a different chaoticity in each case in order to test predictions of standard stochastical models for classical chaotic systems.
id cern-318351
institution Organización Europea para la Investigación Nuclear
language eng
publishDate 1997
record_format invenio
spelling cern-3183512019-09-30T06:29:59Zhttp://cds.cern.ch/record/318351engRehfeld, HAlt, HDembowski, CGräf, H DHofferbert, RRichter, ALengeler, HerbertWave Dynamical Chaos in Superconducting Microwave CavitiesNonlinear SystemsDuring the last few years we have studied the chaotic behavior of special Euclidian geometries, so-called billiards, from the quantum or in more general sense "wave dynamical" point of view. Due to the equivalence between the stationary Schroedinger equation and the classical Helmholtz equation in the two-dimensional case (plain billiards), it is possible to simulate "quantum chaos" with the help of macroscopic, superconducting microwave cavities. Using this technique we investigated spectra of three billiards from the family of Pascal's Snails (Robnik-Billiards) with a different chaoticity in each case in order to test predictions of standard stochastical models for classical chaotic systems.chao-dyn/9701010IKDA-96-40oai:cds.cern.ch:3183511997-01-13
spellingShingle Nonlinear Systems
Rehfeld, H
Alt, H
Dembowski, C
Gräf, H D
Hofferbert, R
Richter, A
Lengeler, Herbert
Wave Dynamical Chaos in Superconducting Microwave Cavities
title Wave Dynamical Chaos in Superconducting Microwave Cavities
title_full Wave Dynamical Chaos in Superconducting Microwave Cavities
title_fullStr Wave Dynamical Chaos in Superconducting Microwave Cavities
title_full_unstemmed Wave Dynamical Chaos in Superconducting Microwave Cavities
title_short Wave Dynamical Chaos in Superconducting Microwave Cavities
title_sort wave dynamical chaos in superconducting microwave cavities
topic Nonlinear Systems
url http://cds.cern.ch/record/318351
work_keys_str_mv AT rehfeldh wavedynamicalchaosinsuperconductingmicrowavecavities
AT alth wavedynamicalchaosinsuperconductingmicrowavecavities
AT dembowskic wavedynamicalchaosinsuperconductingmicrowavecavities
AT grafhd wavedynamicalchaosinsuperconductingmicrowavecavities
AT hofferbertr wavedynamicalchaosinsuperconductingmicrowavecavities
AT richtera wavedynamicalchaosinsuperconductingmicrowavecavities
AT lengelerherbert wavedynamicalchaosinsuperconductingmicrowavecavities