Experimental and theoretical study of the energy loss of C and O in Zn

We present a combined experimental-theoretical study of the energy loss of C and O ions in Zn in the energy range 50-1000 keV/amu. This contribution has a double purpose, experimental and theoretical. On the experimental side, we present stopping power measurements that fill a gap in the literature...

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Autores principales: Cantero, E.D., Montanari, C.C., Behar, M., Fadanelli, R.C., Lantschner, G.H., Miraglia, J.E., Arista, N.R.
Formato: JOUR
Materias:
Energy loss
Energy ranges
Inner-shell electrons
Nonperturbative
Quantitative tests
Scattering calculations
Stopping power
Swift ions
Theoretical approach
Theoretical study
Transport cross-section
Valence electron
Electron energy loss spectroscopy
Ions
Projectiles
Zinc
Energy dissipation
Acceso en línea:http://hdl.handle.net/20.500.12110/paper_10502947_v84_n1_p_Cantero
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Biblioteca Digital - Facultad de Ciencias Exactas y Naturales (UBA) de Universidad de Buenos Aires
id todo:paper_10502947_v84_n1_p_Cantero
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spelling todo:paper_10502947_v84_n1_p_Cantero2023-10-03T16:00:09Z Experimental and theoretical study of the energy loss of C and O in Zn Cantero, E.D. Montanari, C.C. Behar, M. Fadanelli, R.C. Lantschner, G.H. Miraglia, J.E. Arista, N.R. Energy loss Energy ranges Inner-shell electrons Nonperturbative Quantitative tests Scattering calculations Stopping power Swift ions Theoretical approach Theoretical study Transport cross-section Valence electron Electron energy loss spectroscopy Ions Projectiles Zinc Energy dissipation We present a combined experimental-theoretical study of the energy loss of C and O ions in Zn in the energy range 50-1000 keV/amu. This contribution has a double purpose, experimental and theoretical. On the experimental side, we present stopping power measurements that fill a gap in the literature for these projectile-target combinations and cover an extended energy range, including the stopping maximum. On the theoretical side, we make a quantitative test on the applicability of various theoretical approaches to calculate the energy loss of heavy swift ions in solids. The description is performed using different models for valence and inner-shell electrons: a nonperturbative scattering calculation based on the transport cross section formalism to describe the Zn valence electron contribution, and two different models for the inner-shell contribution: the shellwise local plasma approximation (SLPA) and the convolution approximation for swift particles (CasP). The experimental results indicate that C is the limit for the applicability of the SLPA approach, which previously was successfully applied to projectiles from H to B. We find that this model clearly overestimates the stopping data for O ions. The origin of these discrepancies is related to the perturbative approximation involved in the SLPA. This shortcoming has been solved by using the nonperturbative CasP results to describe the inner-shell contribution, which yields a very good agreement with the experiments for both C and O ions. © 2011 American Physical Society. Fil:Montanari, C.C. Universidad de Buenos Aires. Facultad de Ciencias Exactas y Naturales; Argentina. Fil:Behar, M. Universidad de Buenos Aires. Facultad de Ciencias Exactas y Naturales; Argentina. Fil:Miraglia, J.E. Universidad de Buenos Aires. Facultad de Ciencias Exactas y Naturales; Argentina. JOUR info:eu-repo/semantics/openAccess http://creativecommons.org/licenses/by/2.5/ar http://hdl.handle.net/20.500.12110/paper_10502947_v84_n1_p_Cantero
institution Universidad de Buenos Aires
institution_str I-28
repository_str R-134
collection Biblioteca Digital - Facultad de Ciencias Exactas y Naturales (UBA)
topic Energy loss
Energy ranges
Inner-shell electrons
Nonperturbative
Quantitative tests
Scattering calculations
Stopping power
Swift ions
Theoretical approach
Theoretical study
Transport cross-section
Valence electron
Electron energy loss spectroscopy
Ions
Projectiles
Zinc
Energy dissipation
spellingShingle Energy loss
Energy ranges
Inner-shell electrons
Nonperturbative
Quantitative tests
Scattering calculations
Stopping power
Swift ions
Theoretical approach
Theoretical study
Transport cross-section
Valence electron
Electron energy loss spectroscopy
Ions
Projectiles
Zinc
Energy dissipation
Cantero, E.D.
Montanari, C.C.
Behar, M.
Fadanelli, R.C.
Lantschner, G.H.
Miraglia, J.E.
Arista, N.R.
Experimental and theoretical study of the energy loss of C and O in Zn
topic_facet Energy loss
Energy ranges
Inner-shell electrons
Nonperturbative
Quantitative tests
Scattering calculations
Stopping power
Swift ions
Theoretical approach
Theoretical study
Transport cross-section
Valence electron
Electron energy loss spectroscopy
Ions
Projectiles
Zinc
Energy dissipation
description We present a combined experimental-theoretical study of the energy loss of C and O ions in Zn in the energy range 50-1000 keV/amu. This contribution has a double purpose, experimental and theoretical. On the experimental side, we present stopping power measurements that fill a gap in the literature for these projectile-target combinations and cover an extended energy range, including the stopping maximum. On the theoretical side, we make a quantitative test on the applicability of various theoretical approaches to calculate the energy loss of heavy swift ions in solids. The description is performed using different models for valence and inner-shell electrons: a nonperturbative scattering calculation based on the transport cross section formalism to describe the Zn valence electron contribution, and two different models for the inner-shell contribution: the shellwise local plasma approximation (SLPA) and the convolution approximation for swift particles (CasP). The experimental results indicate that C is the limit for the applicability of the SLPA approach, which previously was successfully applied to projectiles from H to B. We find that this model clearly overestimates the stopping data for O ions. The origin of these discrepancies is related to the perturbative approximation involved in the SLPA. This shortcoming has been solved by using the nonperturbative CasP results to describe the inner-shell contribution, which yields a very good agreement with the experiments for both C and O ions. © 2011 American Physical Society.
format JOUR
author Cantero, E.D.
Montanari, C.C.
Behar, M.
Fadanelli, R.C.
Lantschner, G.H.
Miraglia, J.E.
Arista, N.R.
author_facet Cantero, E.D.
Montanari, C.C.
Behar, M.
Fadanelli, R.C.
Lantschner, G.H.
Miraglia, J.E.
Arista, N.R.
author_sort Cantero, E.D.
title Experimental and theoretical study of the energy loss of C and O in Zn
title_short Experimental and theoretical study of the energy loss of C and O in Zn
title_full Experimental and theoretical study of the energy loss of C and O in Zn
title_fullStr Experimental and theoretical study of the energy loss of C and O in Zn
title_full_unstemmed Experimental and theoretical study of the energy loss of C and O in Zn
title_sort experimental and theoretical study of the energy loss of c and o in zn
url http://hdl.handle.net/20.500.12110/paper_10502947_v84_n1_p_Cantero
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AT fadanellirc experimentalandtheoreticalstudyoftheenergylossofcandoinzn
AT lantschnergh experimentalandtheoreticalstudyoftheenergylossofcandoinzn
AT miragliaje experimentalandtheoreticalstudyoftheenergylossofcandoinzn
AT aristanr experimentalandtheoreticalstudyoftheenergylossofcandoinzn
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