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B P Marinkovic - One of the best experts on this subject based on the ideXlab platform.
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experimental and theoretical study of the elastic electron Indium Atom scattering in the intermediate energy range
Physical Review A, 2008Co-Authors: M S Rabasovic, S D Tosic, V Pejcev, D Sevic, D M Filipovic, V I Kelemen, M M Dovhanych, Yu E Remeta, B P MarinkovicAbstract:The results of experimental and theoretical studies on elastic-electron scattering by Indium Atom are presented. The measurements are performed at incident electron energies of ${E}_{0}=10$, 20, 40, 60, 80, and 100 eV within the scattering angles ranging from $10\ifmmode^\circ\else\textdegree\fi{}$ to $150\ifmmode^\circ\else\textdegree\fi{}$. Theoretical calculations have been carried out using both complex and real optical potentials and cover the energy range up to ${E}_{0}=350\text{ }\text{eV}$. We report on relative differential cross sections (DCSs), integral $({\ensuremath{\sigma}}_{\text{el}})$, momentum-transfer $({\ensuremath{\sigma}}_{m})$, and viscosity $({\ensuremath{\sigma}}_{v})$ cross sections for elastic-electron scattering. The energy dependence of the angular positions of DCS minima is also determined. Two data sets were calculated, with and withoutt an absorption potential being compared to the experimental results.
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volume correction factor in electron Indium Atom scattering experiments
Facta Universitatis - Series: Physics Chemistry and Technology, 2008Co-Authors: M S Rabasovic, S D Tosic, V Pejcev, D Sevic, D M Filipovic, B P MarinkovicAbstract:In crossed electron beam - Indium Atom beam scattering experiments the measured signal arises from a spatial region (the 'interaction volume') defined by the overlap of the electron and target Atom beam and the view cone of the detector. The exchange of the interaction volume with the scattering angle, named a volume correction factor is discussed. The approach of R. T. Brinkmann and S. Trajmar (J. Phys. E 14, 245-254 (1981)) is adopted for our experimental conditions to determine the volume correction factor and accordingly to transfer angular distributions of scattered electrons to relative differential cross sections.
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volume correction factor in electron Indium Atom scattering experiments udc 539 171
2008Co-Authors: M S Rabasovic, S D Tosic, V Pejcev, D Sevic, D M Filipovic, B P MarinkovicAbstract:In crossed electron beam - Indium Atom beam scattering experiments the measured signal arises from a spatial region (the 'interaction volume') defined by the overlap of the electron and target Atom beam and the view cone of the detector. The exchange of the interaction volume with the scattering angle, named a volume correction factor is discussed. The approach of R. T. Brinkmann and S. Trajmar (J. Phys. E 14, 245-254 (1981)) is adopted for our experimental conditions to determine the volume correction factor and accordingly to transfer angular distributions of scattered electrons to relative differential cross sections.
M S Rabasovic - One of the best experts on this subject based on the ideXlab platform.
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electron Indium Atom scattering and analysis of electron and optical spectra
Journal of Physics: Conference Series, 2014Co-Authors: M S RabasovicAbstract:Experimental study of Indium Atom using electron and optical spectroscopy is presented in this paper. Both experimental techniques including experimental setups are described. Differential and integrated cross sections on elastic and inelastic electron scattering by Indium Atom are measured using electron spectrometer. The measurements are performed at incident electron energies of E0 = 10, 20, 40, 60, 80 and 100 eV within the large scattering angles ranging from 10° to 150° in steps of 10°. The experimental results are presented and comparison with the values predicted by calculated optical potentials method is conducted, showing good agreement. The differential cross sections (DCSs) for electron-impact excitation of the resonant state 6s 2S1/2 of Indium Atom are measured at small and large angles. The forward scattering function method has been used for normalizing the generalized oscillator strengths (GOS) to determine optical oscillator strength and obtaining the absolute DCS values. Optical spectrum of In I and In II lines has been acquired by a streak camera. The experimental results regarding Indium lines obtained by time resolved laser induced breakdown spectroscopy (LIBS) could be useful for obtaining the important plasma parameters such as temperature, electron density as well as plasma-expansion velocity and plasma starting times.
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experimental and theoretical study of the elastic electron Indium Atom scattering in the intermediate energy range
Physical Review A, 2008Co-Authors: M S Rabasovic, S D Tosic, V Pejcev, D Sevic, D M Filipovic, V I Kelemen, M M Dovhanych, Yu E Remeta, B P MarinkovicAbstract:The results of experimental and theoretical studies on elastic-electron scattering by Indium Atom are presented. The measurements are performed at incident electron energies of ${E}_{0}=10$, 20, 40, 60, 80, and 100 eV within the scattering angles ranging from $10\ifmmode^\circ\else\textdegree\fi{}$ to $150\ifmmode^\circ\else\textdegree\fi{}$. Theoretical calculations have been carried out using both complex and real optical potentials and cover the energy range up to ${E}_{0}=350\text{ }\text{eV}$. We report on relative differential cross sections (DCSs), integral $({\ensuremath{\sigma}}_{\text{el}})$, momentum-transfer $({\ensuremath{\sigma}}_{m})$, and viscosity $({\ensuremath{\sigma}}_{v})$ cross sections for elastic-electron scattering. The energy dependence of the angular positions of DCS minima is also determined. Two data sets were calculated, with and withoutt an absorption potential being compared to the experimental results.
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Experimental and theoretical study of the elastic-electron–Indium-Atom scattering in the intermediate energy range
Physical Review A, 2008Co-Authors: M S Rabasovic, V Pejcev, D Sevic, V I Kelemen, M M Dovhanych, S. D. Tošić, D M Filipović, E. Yu. Remeta, Bratislav P. MarinkovićAbstract:The results of experimental and theoretical studies on elastic-electron scattering by Indium Atom are presented. The measurements are performed at incident electron energies of ${E}_{0}=10$, 20, 40, 60, 80, and 100 eV within the scattering angles ranging from $10\ifmmode^\circ\else\textdegree\fi{}$ to $150\ifmmode^\circ\else\textdegree\fi{}$. Theoretical calculations have been carried out using both complex and real optical potentials and cover the energy range up to ${E}_{0}=350\text{ }\text{eV}$. We report on relative differential cross sections (DCSs), integral $({\ensuremath{\sigma}}_{\text{el}})$, momentum-transfer $({\ensuremath{\sigma}}_{m})$, and viscosity $({\ensuremath{\sigma}}_{v})$ cross sections for elastic-electron scattering. The energy dependence of the angular positions of DCS minima is also determined. Two data sets were calculated, with and withoutt an absorption potential being compared to the experimental results.
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volume correction factor in electron Indium Atom scattering experiments
Facta Universitatis - Series: Physics Chemistry and Technology, 2008Co-Authors: M S Rabasovic, S D Tosic, V Pejcev, D Sevic, D M Filipovic, B P MarinkovicAbstract:In crossed electron beam - Indium Atom beam scattering experiments the measured signal arises from a spatial region (the 'interaction volume') defined by the overlap of the electron and target Atom beam and the view cone of the detector. The exchange of the interaction volume with the scattering angle, named a volume correction factor is discussed. The approach of R. T. Brinkmann and S. Trajmar (J. Phys. E 14, 245-254 (1981)) is adopted for our experimental conditions to determine the volume correction factor and accordingly to transfer angular distributions of scattered electrons to relative differential cross sections.
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volume correction factor in electron Indium Atom scattering experiments udc 539 171
2008Co-Authors: M S Rabasovic, S D Tosic, V Pejcev, D Sevic, D M Filipovic, B P MarinkovicAbstract:In crossed electron beam - Indium Atom beam scattering experiments the measured signal arises from a spatial region (the 'interaction volume') defined by the overlap of the electron and target Atom beam and the view cone of the detector. The exchange of the interaction volume with the scattering angle, named a volume correction factor is discussed. The approach of R. T. Brinkmann and S. Trajmar (J. Phys. E 14, 245-254 (1981)) is adopted for our experimental conditions to determine the volume correction factor and accordingly to transfer angular distributions of scattered electrons to relative differential cross sections.
V Pejcev - One of the best experts on this subject based on the ideXlab platform.
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experimental and theoretical study of the elastic electron Indium Atom scattering in the intermediate energy range
Physical Review A, 2008Co-Authors: M S Rabasovic, S D Tosic, V Pejcev, D Sevic, D M Filipovic, V I Kelemen, M M Dovhanych, Yu E Remeta, B P MarinkovicAbstract:The results of experimental and theoretical studies on elastic-electron scattering by Indium Atom are presented. The measurements are performed at incident electron energies of ${E}_{0}=10$, 20, 40, 60, 80, and 100 eV within the scattering angles ranging from $10\ifmmode^\circ\else\textdegree\fi{}$ to $150\ifmmode^\circ\else\textdegree\fi{}$. Theoretical calculations have been carried out using both complex and real optical potentials and cover the energy range up to ${E}_{0}=350\text{ }\text{eV}$. We report on relative differential cross sections (DCSs), integral $({\ensuremath{\sigma}}_{\text{el}})$, momentum-transfer $({\ensuremath{\sigma}}_{m})$, and viscosity $({\ensuremath{\sigma}}_{v})$ cross sections for elastic-electron scattering. The energy dependence of the angular positions of DCS minima is also determined. Two data sets were calculated, with and withoutt an absorption potential being compared to the experimental results.
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Experimental and theoretical study of the elastic-electron–Indium-Atom scattering in the intermediate energy range
Physical Review A, 2008Co-Authors: M S Rabasovic, V Pejcev, D Sevic, V I Kelemen, M M Dovhanych, S. D. Tošić, D M Filipović, E. Yu. Remeta, Bratislav P. MarinkovićAbstract:The results of experimental and theoretical studies on elastic-electron scattering by Indium Atom are presented. The measurements are performed at incident electron energies of ${E}_{0}=10$, 20, 40, 60, 80, and 100 eV within the scattering angles ranging from $10\ifmmode^\circ\else\textdegree\fi{}$ to $150\ifmmode^\circ\else\textdegree\fi{}$. Theoretical calculations have been carried out using both complex and real optical potentials and cover the energy range up to ${E}_{0}=350\text{ }\text{eV}$. We report on relative differential cross sections (DCSs), integral $({\ensuremath{\sigma}}_{\text{el}})$, momentum-transfer $({\ensuremath{\sigma}}_{m})$, and viscosity $({\ensuremath{\sigma}}_{v})$ cross sections for elastic-electron scattering. The energy dependence of the angular positions of DCS minima is also determined. Two data sets were calculated, with and withoutt an absorption potential being compared to the experimental results.
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volume correction factor in electron Indium Atom scattering experiments
Facta Universitatis - Series: Physics Chemistry and Technology, 2008Co-Authors: M S Rabasovic, S D Tosic, V Pejcev, D Sevic, D M Filipovic, B P MarinkovicAbstract:In crossed electron beam - Indium Atom beam scattering experiments the measured signal arises from a spatial region (the 'interaction volume') defined by the overlap of the electron and target Atom beam and the view cone of the detector. The exchange of the interaction volume with the scattering angle, named a volume correction factor is discussed. The approach of R. T. Brinkmann and S. Trajmar (J. Phys. E 14, 245-254 (1981)) is adopted for our experimental conditions to determine the volume correction factor and accordingly to transfer angular distributions of scattered electrons to relative differential cross sections.
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volume correction factor in electron Indium Atom scattering experiments udc 539 171
2008Co-Authors: M S Rabasovic, S D Tosic, V Pejcev, D Sevic, D M Filipovic, B P MarinkovicAbstract:In crossed electron beam - Indium Atom beam scattering experiments the measured signal arises from a spatial region (the 'interaction volume') defined by the overlap of the electron and target Atom beam and the view cone of the detector. The exchange of the interaction volume with the scattering angle, named a volume correction factor is discussed. The approach of R. T. Brinkmann and S. Trajmar (J. Phys. E 14, 245-254 (1981)) is adopted for our experimental conditions to determine the volume correction factor and accordingly to transfer angular distributions of scattered electrons to relative differential cross sections.
D Sevic - One of the best experts on this subject based on the ideXlab platform.
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experimental and theoretical study of the elastic electron Indium Atom scattering in the intermediate energy range
Physical Review A, 2008Co-Authors: M S Rabasovic, S D Tosic, V Pejcev, D Sevic, D M Filipovic, V I Kelemen, M M Dovhanych, Yu E Remeta, B P MarinkovicAbstract:The results of experimental and theoretical studies on elastic-electron scattering by Indium Atom are presented. The measurements are performed at incident electron energies of ${E}_{0}=10$, 20, 40, 60, 80, and 100 eV within the scattering angles ranging from $10\ifmmode^\circ\else\textdegree\fi{}$ to $150\ifmmode^\circ\else\textdegree\fi{}$. Theoretical calculations have been carried out using both complex and real optical potentials and cover the energy range up to ${E}_{0}=350\text{ }\text{eV}$. We report on relative differential cross sections (DCSs), integral $({\ensuremath{\sigma}}_{\text{el}})$, momentum-transfer $({\ensuremath{\sigma}}_{m})$, and viscosity $({\ensuremath{\sigma}}_{v})$ cross sections for elastic-electron scattering. The energy dependence of the angular positions of DCS minima is also determined. Two data sets were calculated, with and withoutt an absorption potential being compared to the experimental results.
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Experimental and theoretical study of the elastic-electron–Indium-Atom scattering in the intermediate energy range
Physical Review A, 2008Co-Authors: M S Rabasovic, V Pejcev, D Sevic, V I Kelemen, M M Dovhanych, S. D. Tošić, D M Filipović, E. Yu. Remeta, Bratislav P. MarinkovićAbstract:The results of experimental and theoretical studies on elastic-electron scattering by Indium Atom are presented. The measurements are performed at incident electron energies of ${E}_{0}=10$, 20, 40, 60, 80, and 100 eV within the scattering angles ranging from $10\ifmmode^\circ\else\textdegree\fi{}$ to $150\ifmmode^\circ\else\textdegree\fi{}$. Theoretical calculations have been carried out using both complex and real optical potentials and cover the energy range up to ${E}_{0}=350\text{ }\text{eV}$. We report on relative differential cross sections (DCSs), integral $({\ensuremath{\sigma}}_{\text{el}})$, momentum-transfer $({\ensuremath{\sigma}}_{m})$, and viscosity $({\ensuremath{\sigma}}_{v})$ cross sections for elastic-electron scattering. The energy dependence of the angular positions of DCS minima is also determined. Two data sets were calculated, with and withoutt an absorption potential being compared to the experimental results.
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volume correction factor in electron Indium Atom scattering experiments
Facta Universitatis - Series: Physics Chemistry and Technology, 2008Co-Authors: M S Rabasovic, S D Tosic, V Pejcev, D Sevic, D M Filipovic, B P MarinkovicAbstract:In crossed electron beam - Indium Atom beam scattering experiments the measured signal arises from a spatial region (the 'interaction volume') defined by the overlap of the electron and target Atom beam and the view cone of the detector. The exchange of the interaction volume with the scattering angle, named a volume correction factor is discussed. The approach of R. T. Brinkmann and S. Trajmar (J. Phys. E 14, 245-254 (1981)) is adopted for our experimental conditions to determine the volume correction factor and accordingly to transfer angular distributions of scattered electrons to relative differential cross sections.
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volume correction factor in electron Indium Atom scattering experiments udc 539 171
2008Co-Authors: M S Rabasovic, S D Tosic, V Pejcev, D Sevic, D M Filipovic, B P MarinkovicAbstract:In crossed electron beam - Indium Atom beam scattering experiments the measured signal arises from a spatial region (the 'interaction volume') defined by the overlap of the electron and target Atom beam and the view cone of the detector. The exchange of the interaction volume with the scattering angle, named a volume correction factor is discussed. The approach of R. T. Brinkmann and S. Trajmar (J. Phys. E 14, 245-254 (1981)) is adopted for our experimental conditions to determine the volume correction factor and accordingly to transfer angular distributions of scattered electrons to relative differential cross sections.
D M Filipovic - One of the best experts on this subject based on the ideXlab platform.
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experimental and theoretical study of the elastic electron Indium Atom scattering in the intermediate energy range
Physical Review A, 2008Co-Authors: M S Rabasovic, S D Tosic, V Pejcev, D Sevic, D M Filipovic, V I Kelemen, M M Dovhanych, Yu E Remeta, B P MarinkovicAbstract:The results of experimental and theoretical studies on elastic-electron scattering by Indium Atom are presented. The measurements are performed at incident electron energies of ${E}_{0}=10$, 20, 40, 60, 80, and 100 eV within the scattering angles ranging from $10\ifmmode^\circ\else\textdegree\fi{}$ to $150\ifmmode^\circ\else\textdegree\fi{}$. Theoretical calculations have been carried out using both complex and real optical potentials and cover the energy range up to ${E}_{0}=350\text{ }\text{eV}$. We report on relative differential cross sections (DCSs), integral $({\ensuremath{\sigma}}_{\text{el}})$, momentum-transfer $({\ensuremath{\sigma}}_{m})$, and viscosity $({\ensuremath{\sigma}}_{v})$ cross sections for elastic-electron scattering. The energy dependence of the angular positions of DCS minima is also determined. Two data sets were calculated, with and withoutt an absorption potential being compared to the experimental results.
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volume correction factor in electron Indium Atom scattering experiments
Facta Universitatis - Series: Physics Chemistry and Technology, 2008Co-Authors: M S Rabasovic, S D Tosic, V Pejcev, D Sevic, D M Filipovic, B P MarinkovicAbstract:In crossed electron beam - Indium Atom beam scattering experiments the measured signal arises from a spatial region (the 'interaction volume') defined by the overlap of the electron and target Atom beam and the view cone of the detector. The exchange of the interaction volume with the scattering angle, named a volume correction factor is discussed. The approach of R. T. Brinkmann and S. Trajmar (J. Phys. E 14, 245-254 (1981)) is adopted for our experimental conditions to determine the volume correction factor and accordingly to transfer angular distributions of scattered electrons to relative differential cross sections.
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volume correction factor in electron Indium Atom scattering experiments udc 539 171
2008Co-Authors: M S Rabasovic, S D Tosic, V Pejcev, D Sevic, D M Filipovic, B P MarinkovicAbstract:In crossed electron beam - Indium Atom beam scattering experiments the measured signal arises from a spatial region (the 'interaction volume') defined by the overlap of the electron and target Atom beam and the view cone of the detector. The exchange of the interaction volume with the scattering angle, named a volume correction factor is discussed. The approach of R. T. Brinkmann and S. Trajmar (J. Phys. E 14, 245-254 (1981)) is adopted for our experimental conditions to determine the volume correction factor and accordingly to transfer angular distributions of scattered electrons to relative differential cross sections.