A physical model for the simulation of x-ray emission spectra from samples irradiated with kilovolt electron beams is proposed. Inner shell ionization by electron impact is described by means of total cross sections evaluated from an optical-data model. A double differential cross section is proposed for bremsstrahlung emission, which reproduces the radiative stopping powers derived from the partial wave calculations of Kissel, Quarles and Pratt [At. Data Nucl. Data Tables 28, 381 (1983)]. These ionization and radiative cross sections have been introduced into a general-purpose Monte Carlo code, which performs simulation of coupled electron and photon transport for arbitrary materials. To improve the efficiency of the simulation, interactio...
This work investigates the transport of electrons having energies near those of the atomic binding l...
This work investigates the transport of electrons having energies near those of the atomic binding l...
In this paper, we present an extension to our code, XCASCADE [Medvedev, Appl. Phys. B 118, 417], tha...
A physical model for the simulation of x-ray emission spectra from samples irradiated with kilovolt ...
We present a general algorithm for the simulation of x-ray spectra emitted from targets of arbitrary...
We present a general algorithm for the simulation of x-ray spectra emitted from targets of arbitrary...
We present a general algorithm for the simulation of x-ray spectra emitted from targets of arbitrary...
Theoretical methods to compute accurate x-ray spectra emitted from targets bombarded with kV electro...
Theoretical methods to compute accurate x-ray spectra emitted from targets bombarded with kV electro...
The Monte Carlo code PENELOPE (coupled electron-photon Monte Carlo) has been used to compute the eff...
The penetration characteristics of electron beams into x-ray targets are investigated for incident e...
Treballs Finals de Grau de Física, Facultat de Física, Universitat de Barcelona, Curs: 2018, Tutor: ...
The Monte Carlo code PENELOPE (coupled electron-photon Monte Carlo) has been used to compute the eff...
After a summary description of the theory of elastic collisions of nucleons with atoms, we present t...
none4siThe Monte Carlo code PENELOPE (coupled electron-photon Monte Carlo) has been used to compute ...
This work investigates the transport of electrons having energies near those of the atomic binding l...
This work investigates the transport of electrons having energies near those of the atomic binding l...
In this paper, we present an extension to our code, XCASCADE [Medvedev, Appl. Phys. B 118, 417], tha...
A physical model for the simulation of x-ray emission spectra from samples irradiated with kilovolt ...
We present a general algorithm for the simulation of x-ray spectra emitted from targets of arbitrary...
We present a general algorithm for the simulation of x-ray spectra emitted from targets of arbitrary...
We present a general algorithm for the simulation of x-ray spectra emitted from targets of arbitrary...
Theoretical methods to compute accurate x-ray spectra emitted from targets bombarded with kV electro...
Theoretical methods to compute accurate x-ray spectra emitted from targets bombarded with kV electro...
The Monte Carlo code PENELOPE (coupled electron-photon Monte Carlo) has been used to compute the eff...
The penetration characteristics of electron beams into x-ray targets are investigated for incident e...
Treballs Finals de Grau de Física, Facultat de Física, Universitat de Barcelona, Curs: 2018, Tutor: ...
The Monte Carlo code PENELOPE (coupled electron-photon Monte Carlo) has been used to compute the eff...
After a summary description of the theory of elastic collisions of nucleons with atoms, we present t...
none4siThe Monte Carlo code PENELOPE (coupled electron-photon Monte Carlo) has been used to compute ...
This work investigates the transport of electrons having energies near those of the atomic binding l...
This work investigates the transport of electrons having energies near those of the atomic binding l...
In this paper, we present an extension to our code, XCASCADE [Medvedev, Appl. Phys. B 118, 417], tha...