A model for non-volatile electronic memory devices with strongly correlated materials

The behavior of a model for non-volatile electronic memory devices with strongly correlated materials, was investigated. The domain structure assumed in this model is motivated from a rather universal aspect of strongly correlated perovskites such as the spatial inhomogeneity that occurs at the nano...

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Autores principales: Rozenberg, Marcelo Javier, Sánchez, María José
Publicado: 2005
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Acceso en línea:https://bibliotecadigital.exactas.uba.ar/collection/paper/document/paper_00406090_v486_n1-2_p24_Rozenberg
http://hdl.handle.net/20.500.12110/paper_00406090_v486_n1-2_p24_Rozenberg
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spelling paper:paper_00406090_v486_n1-2_p24_Rozenberg2023-06-08T15:04:36Z A model for non-volatile electronic memory devices with strongly correlated materials Rozenberg, Marcelo Javier Sánchez, María José Non-volatile memory Resistance switching Charge transfer Correlation methods Current voltage characteristics Doping (additives) Electric currents Electric potential Electric resistance Fermi level Hysteresis Mathematical models MIM devices Random access storage Memory effects Non-volatile memories Resistance random access memories (RRAM) Resistance switching Data storage equipment The behavior of a model for non-volatile electronic memory devices with strongly correlated materials, was investigated. The domain structure assumed in this model is motivated from a rather universal aspect of strongly correlated perovskites such as the spatial inhomogeneity that occurs at the nanoscale. It is observed that the switching mechanism is related hysteresis in the I-V characteristics and that the hysteresis is itself related to a conjectured metal-insulator transition at the level of small domains. The results show that the domains that receive charge are subject to an 'effective doping' that may drive them across a boundary between two distinct electronic phases. Fil:Rozenberg, M.J. Universidad de Buenos Aires. Facultad de Ciencias Exactas y Naturales; Argentina. Fil:Sánchez, M.J. Universidad de Buenos Aires. Facultad de Ciencias Exactas y Naturales; Argentina. 2005 https://bibliotecadigital.exactas.uba.ar/collection/paper/document/paper_00406090_v486_n1-2_p24_Rozenberg http://hdl.handle.net/20.500.12110/paper_00406090_v486_n1-2_p24_Rozenberg
institution Universidad de Buenos Aires
institution_str I-28
repository_str R-134
collection Biblioteca Digital - Facultad de Ciencias Exactas y Naturales (UBA)
topic Non-volatile memory
Resistance switching
Charge transfer
Correlation methods
Current voltage characteristics
Doping (additives)
Electric currents
Electric potential
Electric resistance
Fermi level
Hysteresis
Mathematical models
MIM devices
Random access storage
Memory effects
Non-volatile memories
Resistance random access memories (RRAM)
Resistance switching
Data storage equipment
spellingShingle Non-volatile memory
Resistance switching
Charge transfer
Correlation methods
Current voltage characteristics
Doping (additives)
Electric currents
Electric potential
Electric resistance
Fermi level
Hysteresis
Mathematical models
MIM devices
Random access storage
Memory effects
Non-volatile memories
Resistance random access memories (RRAM)
Resistance switching
Data storage equipment
Rozenberg, Marcelo Javier
Sánchez, María José
A model for non-volatile electronic memory devices with strongly correlated materials
topic_facet Non-volatile memory
Resistance switching
Charge transfer
Correlation methods
Current voltage characteristics
Doping (additives)
Electric currents
Electric potential
Electric resistance
Fermi level
Hysteresis
Mathematical models
MIM devices
Random access storage
Memory effects
Non-volatile memories
Resistance random access memories (RRAM)
Resistance switching
Data storage equipment
description The behavior of a model for non-volatile electronic memory devices with strongly correlated materials, was investigated. The domain structure assumed in this model is motivated from a rather universal aspect of strongly correlated perovskites such as the spatial inhomogeneity that occurs at the nanoscale. It is observed that the switching mechanism is related hysteresis in the I-V characteristics and that the hysteresis is itself related to a conjectured metal-insulator transition at the level of small domains. The results show that the domains that receive charge are subject to an 'effective doping' that may drive them across a boundary between two distinct electronic phases.
author Rozenberg, Marcelo Javier
Sánchez, María José
author_facet Rozenberg, Marcelo Javier
Sánchez, María José
author_sort Rozenberg, Marcelo Javier
title A model for non-volatile electronic memory devices with strongly correlated materials
title_short A model for non-volatile electronic memory devices with strongly correlated materials
title_full A model for non-volatile electronic memory devices with strongly correlated materials
title_fullStr A model for non-volatile electronic memory devices with strongly correlated materials
title_full_unstemmed A model for non-volatile electronic memory devices with strongly correlated materials
title_sort model for non-volatile electronic memory devices with strongly correlated materials
publishDate 2005
url https://bibliotecadigital.exactas.uba.ar/collection/paper/document/paper_00406090_v486_n1-2_p24_Rozenberg
http://hdl.handle.net/20.500.12110/paper_00406090_v486_n1-2_p24_Rozenberg
work_keys_str_mv AT rozenbergmarcelojavier amodelfornonvolatileelectronicmemorydeviceswithstronglycorrelatedmaterials
AT sanchezmariajose amodelfornonvolatileelectronicmemorydeviceswithstronglycorrelatedmaterials
AT rozenbergmarcelojavier modelfornonvolatileelectronicmemorydeviceswithstronglycorrelatedmaterials
AT sanchezmariajose modelfornonvolatileelectronicmemorydeviceswithstronglycorrelatedmaterials
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