Time resolved nanosecond vortex dynamics in high Tc superconducting films

Flux dynamics in a high Tc superconducting thin film is investigated in the ns time scale. The initial metastable state is determined by applying a pulsed magnetic field to a sample previous cooled below the irreversibility line. Selective local heating of the film with a pulsed laser spot lowers th...

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Detalles Bibliográficos
Autores principales:	Ferrari, H., Ibaceta, D., Bekeris, V., Calzetta, E., Correra, L.
Formato:	JOUR
Materias:	Critical currents Flux creep Flux pinning Vortex dynamics Computer simulation Electric potential Heating High temperature superconductors Magnetic fields Magnetic flux Maxwell equations Superconducting films
Acceso en línea:	http://hdl.handle.net/20.500.12110/paper_00112275_v44_n1_p29_Ferrari
Aporte de:	Biblioteca Digital - Facultad de Ciencias Exactas y Naturales (UBA) de Universidad de Buenos Aires

id	todo:paper_00112275_v44_n1_p29_Ferrari
record_format	dspace
spelling	todo:paper_00112275_v44_n1_p29_Ferrari2023-10-03T14:09:43Z Time resolved nanosecond vortex dynamics in high Tc superconducting films Ferrari, H. Ibaceta, D. Bekeris, V. Calzetta, E. Correra, L. Critical currents Flux creep Flux pinning Vortex dynamics Computer simulation Critical currents Electric potential Heating High temperature superconductors Magnetic fields Magnetic flux Maxwell equations Flux creep Flux pinning Vortex dynamics Superconducting films Flux dynamics in a high Tc superconducting thin film is investigated in the ns time scale. The initial metastable state is determined by applying a pulsed magnetic field to a sample previous cooled below the irreversibility line. Selective local heating of the film with a pulsed laser spot lowers the vortex pinning force suddenly. The magnetic flux rearrangements that follow generate a voltage pulse between two contacts on the zero current biased sample. Detail simulations were performed in the framework of a phenomenological model based on Maxwell Equations with constitutive relations for creep and flux flow that fully describe the observed voltage signals. © 2003 Elsevier Ltd. All rights reserved. JOUR info:eu-repo/semantics/openAccess http://creativecommons.org/licenses/by/2.5/ar http://hdl.handle.net/20.500.12110/paper_00112275_v44_n1_p29_Ferrari
institution	Universidad de Buenos Aires
institution_str	I-28
repository_str	R-134
collection	Biblioteca Digital - Facultad de Ciencias Exactas y Naturales (UBA)
topic	Critical currents Flux creep Flux pinning Vortex dynamics Computer simulation Critical currents Electric potential Heating High temperature superconductors Magnetic fields Magnetic flux Maxwell equations Flux creep Flux pinning Vortex dynamics Superconducting films
spellingShingle	Critical currents Flux creep Flux pinning Vortex dynamics Computer simulation Critical currents Electric potential Heating High temperature superconductors Magnetic fields Magnetic flux Maxwell equations Flux creep Flux pinning Vortex dynamics Superconducting films Ferrari, H. Ibaceta, D. Bekeris, V. Calzetta, E. Correra, L. Time resolved nanosecond vortex dynamics in high Tc superconducting films
topic_facet	Critical currents Flux creep Flux pinning Vortex dynamics Computer simulation Critical currents Electric potential Heating High temperature superconductors Magnetic fields Magnetic flux Maxwell equations Flux creep Flux pinning Vortex dynamics Superconducting films
description	Flux dynamics in a high Tc superconducting thin film is investigated in the ns time scale. The initial metastable state is determined by applying a pulsed magnetic field to a sample previous cooled below the irreversibility line. Selective local heating of the film with a pulsed laser spot lowers the vortex pinning force suddenly. The magnetic flux rearrangements that follow generate a voltage pulse between two contacts on the zero current biased sample. Detail simulations were performed in the framework of a phenomenological model based on Maxwell Equations with constitutive relations for creep and flux flow that fully describe the observed voltage signals. © 2003 Elsevier Ltd. All rights reserved.
format	JOUR
author	Ferrari, H. Ibaceta, D. Bekeris, V. Calzetta, E. Correra, L.
author_facet	Ferrari, H. Ibaceta, D. Bekeris, V. Calzetta, E. Correra, L.
author_sort	Ferrari, H.
title	Time resolved nanosecond vortex dynamics in high Tc superconducting films
title_short	Time resolved nanosecond vortex dynamics in high Tc superconducting films
title_full	Time resolved nanosecond vortex dynamics in high Tc superconducting films
title_fullStr	Time resolved nanosecond vortex dynamics in high Tc superconducting films
title_full_unstemmed	Time resolved nanosecond vortex dynamics in high Tc superconducting films
title_sort	time resolved nanosecond vortex dynamics in high tc superconducting films
url	http://hdl.handle.net/20.500.12110/paper_00112275_v44_n1_p29_Ferrari
work_keys_str_mv	AT ferrarih timeresolvednanosecondvortexdynamicsinhightcsuperconductingfilms AT ibacetad timeresolvednanosecondvortexdynamicsinhightcsuperconductingfilms AT bekerisv timeresolvednanosecondvortexdynamicsinhightcsuperconductingfilms AT calzettae timeresolvednanosecondvortexdynamicsinhightcsuperconductingfilms AT correral timeresolvednanosecondvortexdynamicsinhightcsuperconductingfilms
_version_	1782023866871185408

Time resolved nanosecond vortex dynamics in high Tc superconducting films

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