This paper reports the results of a comparison among JEFF and ENDF/B datasets when used by SERPENT and MONTEBURNS codes on a GFR-like configuration. Particularly, it shows a comparison between the two Monte Carlo based codes, each one adopting three different cross sections dataset, namely JEFF-3.1, JEFF-3.1.2 and ENDF/BVII.1. Calculations have been carried out on the Allegro reactor, i.e. an experimental GFR-like facility that should be built in EU as GFR demonstrator. Results concern nuclear parameters as effective multiplication factor and fluxes, as well as the atomic densities for some important nuclides versus burnup
This paper presents two topics related to the burnup calculation capabilities in the Serpent 2 Monte...
Allowing Monte Carlo (MC) codes to perform fuel cycle calculations requires coupling to a point depl...
Allowing Monte Carlo (MC) codes to perform fuel cycle calculations requires coupling to a point depl...
This paper reports the results of a comparison among JEFF and ENDF/B data sets when used by SERPENT ...
This paper presents the comparison between two Monte Carlo based burnup codes: SERPENT and MONTEBURN...
This paper aims to compare three Monte Carlo (MC) burnup based codes, i.e. MCNP6, Monteburns and Se...
This paper presents two separate nuclear data related features recently implemented in the Serpent M...
Serpent is the new version of the PSG continuous-energyMonte Carlo reactor physics code, developed a...
This article describes the implementation of a burnup scheme with coupled fuel behavior feedback int...
This paper is a general overview of the Serpent Monte Carlo reactor physics burnup calculation code....
Several computer codes have been developed to perform nuclear burnup calculations over the past few ...
This work deals with the assessment of the burnup capabilities of the Serpent Monte Carlo code to pr...
Safe operation of a nuclear reactor requires an extensive calculational support. Operational data ar...
One of the main advantages of the continuous-energy Monte Carlo method is its versatility and the ca...
In this work, VVER fuel assembly is calculated using two different codes - Serpent and SCALE. Multip...
This paper presents two topics related to the burnup calculation capabilities in the Serpent 2 Monte...
Allowing Monte Carlo (MC) codes to perform fuel cycle calculations requires coupling to a point depl...
Allowing Monte Carlo (MC) codes to perform fuel cycle calculations requires coupling to a point depl...
This paper reports the results of a comparison among JEFF and ENDF/B data sets when used by SERPENT ...
This paper presents the comparison between two Monte Carlo based burnup codes: SERPENT and MONTEBURN...
This paper aims to compare three Monte Carlo (MC) burnup based codes, i.e. MCNP6, Monteburns and Se...
This paper presents two separate nuclear data related features recently implemented in the Serpent M...
Serpent is the new version of the PSG continuous-energyMonte Carlo reactor physics code, developed a...
This article describes the implementation of a burnup scheme with coupled fuel behavior feedback int...
This paper is a general overview of the Serpent Monte Carlo reactor physics burnup calculation code....
Several computer codes have been developed to perform nuclear burnup calculations over the past few ...
This work deals with the assessment of the burnup capabilities of the Serpent Monte Carlo code to pr...
Safe operation of a nuclear reactor requires an extensive calculational support. Operational data ar...
One of the main advantages of the continuous-energy Monte Carlo method is its versatility and the ca...
In this work, VVER fuel assembly is calculated using two different codes - Serpent and SCALE. Multip...
This paper presents two topics related to the burnup calculation capabilities in the Serpent 2 Monte...
Allowing Monte Carlo (MC) codes to perform fuel cycle calculations requires coupling to a point depl...
Allowing Monte Carlo (MC) codes to perform fuel cycle calculations requires coupling to a point depl...