The long timescale evolution of radiation damage near grain boundaries (GB) in fcc Ni and a Ni–Cr alloy has been investigated. Molecular dynamics (MD) combined with the on-the-fly kinetic Monte Carlo (otf-KMC) has been used to study the evolution of defects in bulk, Σ3 and Σ5 GB systems resulting from 1 keV collision cascades. Results show that both interstitials and vacancies are attracted to GBs, that vacancy and interstitial clustering is observed in the bulk and vacancy clustering in the GB systems
Using molecular dynamics simulations, we characterized the generation and evolution of radiation-ind...
The ageing state of the world's nuclear power infrastructure, and the need to reduce humanity s depe...
Traditionally, grain boundary character in nanoscale materials has been tailored to maximize differe...
The evolution of materials at an atomistic level may have vital consequences for the properties of m...
We have used an Object Kinetic Monte Carlo (OKMC) model to simulate the long term evolution of the p...
We describe the development of a new object kinetic Monte Carlo (kMC) code where the elementary defe...
Iron-Nickel alloys are perspective alloys as nuclear energy structural materials because of their go...
Single-phase multicomponent alloys of equal atomic concentrations ("equiatomic") have proven to exhi...
Large-scale molecular dynamics of cascade production of the primary damage state are performed in fc...
The prospect of using computer simulations to calculate radiation-induced defect production and its ...
We develop a new method using binary collision approximation simulating the Rutherford backscatterin...
Radiation damage in materials relevant to applications evolves over time scales spanning from the fe...
The overall purpose of this dissertation is to develop a multi-scale framework that can simulate rad...
Molecular dynamics simulations of 5 keV cascades in nanocrystalline nickel with grain sizes of 5 and...
In the nuclear reactor core, materials perform under harsh operating environments, including high te...
Using molecular dynamics simulations, we characterized the generation and evolution of radiation-ind...
The ageing state of the world's nuclear power infrastructure, and the need to reduce humanity s depe...
Traditionally, grain boundary character in nanoscale materials has been tailored to maximize differe...
The evolution of materials at an atomistic level may have vital consequences for the properties of m...
We have used an Object Kinetic Monte Carlo (OKMC) model to simulate the long term evolution of the p...
We describe the development of a new object kinetic Monte Carlo (kMC) code where the elementary defe...
Iron-Nickel alloys are perspective alloys as nuclear energy structural materials because of their go...
Single-phase multicomponent alloys of equal atomic concentrations ("equiatomic") have proven to exhi...
Large-scale molecular dynamics of cascade production of the primary damage state are performed in fc...
The prospect of using computer simulations to calculate radiation-induced defect production and its ...
We develop a new method using binary collision approximation simulating the Rutherford backscatterin...
Radiation damage in materials relevant to applications evolves over time scales spanning from the fe...
The overall purpose of this dissertation is to develop a multi-scale framework that can simulate rad...
Molecular dynamics simulations of 5 keV cascades in nanocrystalline nickel with grain sizes of 5 and...
In the nuclear reactor core, materials perform under harsh operating environments, including high te...
Using molecular dynamics simulations, we characterized the generation and evolution of radiation-ind...
The ageing state of the world's nuclear power infrastructure, and the need to reduce humanity s depe...
Traditionally, grain boundary character in nanoscale materials has been tailored to maximize differe...