Radiation damage in target, container, and window materials for spallation neutron sources is am important factor in the design of target stations for accelerator-driver transmutation technologies. Calculations are described that use the LAHET and SPECTER codes to obtain displacement and helium production rates in tungsten, 316 stainless steel, and Inconel 718, which are major target, container, and window materials, respectively. Results are compared for the three materials, based on neutron spectra for NSNS and ATW spallation neutron sources, where the neutron fluxes are normalized to give the same flux of neutrons of all energies
Spallation neutron sources expose materials to high energy (>100 MeV) proton and neutron spectra. Al...
Spallation is an efficient endothermal process for releasing neutrons from nuclei. In order to susta...
In the Spallation Neutron Source target, the structural material will be exposed to intense pulsed f...
Accelerator-driven neutron technologies use spallation neutron sources (SNS`s) in which high-energy ...
The materials exposed to the most damaging radiation environments in an SNS (spallation neutron sour...
Effects of radiation damage by protons and neutrons in structural materials of spallation neutron so...
In principle, intense spallation neutron sources can be used not only to irradiate materials (e.g. w...
This paper describes considerations for selection of structural and target materials for accelerator...
The National Spallation Neutron Source (NSNS), in which neutrons are generated by bombarding a liqui...
Heat-deposition and damage calculations are described for core-vessel inserts in the target area of ...
Transmutation of highly radioactive nuclear waste can be performed using an accelerator driven syste...
Integral neutron production was measured by the manganese-activation technique, on targets semiproto...
Materials samples were irradiated in the Los Alamos Radiation Effects Facility (LASREF) at the Los A...
Spallation is an efficient endothermal process for releasing neutrons from nuclei. In order to susta...
Spallation is an efficient endothermal process for releasing neutrons from nuclei. In order to susta...
Spallation neutron sources expose materials to high energy (>100 MeV) proton and neutron spectra. Al...
Spallation is an efficient endothermal process for releasing neutrons from nuclei. In order to susta...
In the Spallation Neutron Source target, the structural material will be exposed to intense pulsed f...
Accelerator-driven neutron technologies use spallation neutron sources (SNS`s) in which high-energy ...
The materials exposed to the most damaging radiation environments in an SNS (spallation neutron sour...
Effects of radiation damage by protons and neutrons in structural materials of spallation neutron so...
In principle, intense spallation neutron sources can be used not only to irradiate materials (e.g. w...
This paper describes considerations for selection of structural and target materials for accelerator...
The National Spallation Neutron Source (NSNS), in which neutrons are generated by bombarding a liqui...
Heat-deposition and damage calculations are described for core-vessel inserts in the target area of ...
Transmutation of highly radioactive nuclear waste can be performed using an accelerator driven syste...
Integral neutron production was measured by the manganese-activation technique, on targets semiproto...
Materials samples were irradiated in the Los Alamos Radiation Effects Facility (LASREF) at the Los A...
Spallation is an efficient endothermal process for releasing neutrons from nuclei. In order to susta...
Spallation is an efficient endothermal process for releasing neutrons from nuclei. In order to susta...
Spallation neutron sources expose materials to high energy (>100 MeV) proton and neutron spectra. Al...
Spallation is an efficient endothermal process for releasing neutrons from nuclei. In order to susta...
In the Spallation Neutron Source target, the structural material will be exposed to intense pulsed f...