TY - JOUR

T1 - Nuclear wasteform materials: Atomistic simulation case studies

AU - Chroneos, A.

AU - Rushton, M. J. D.

AU - Jiang, C.

AU - Tsoukalas, L. H.

PY - 2013/10/1

Y1 - 2013/10/1

N2 - Ever increasing global energy demand combined with a requirement to reduce CO2 emissions has rekindled an interest in nuclear power generation. In order that nuclear energy remains publicly acceptable and therefore a sustainable source of power it is important that nuclear waste is dealt with in a responsible manner. To achieve this, improved materials for the long-term immobilisation of waste should be developed. The extreme conditions experienced by nuclear wasteforms necessitate the detailed understanding of their properties and the mechanisms acting within them at the atomic scale. This latter issue is the focus of the present review. Atomic scale simulation techniques can accelerate the development of new materials for nuclear wasteform applications and provide detailed information on their physical properties that cannot be easily accessed by experiment. The present article introduces examples of how atomic scale, computational modelling techniques have led to an improved understanding of current nuclear wasteform materials and also suggest how they may be used in the development of new wasteforms (C) 2013 Elsevier B.V. All rights reserved.

AB - Ever increasing global energy demand combined with a requirement to reduce CO2 emissions has rekindled an interest in nuclear power generation. In order that nuclear energy remains publicly acceptable and therefore a sustainable source of power it is important that nuclear waste is dealt with in a responsible manner. To achieve this, improved materials for the long-term immobilisation of waste should be developed. The extreme conditions experienced by nuclear wasteforms necessitate the detailed understanding of their properties and the mechanisms acting within them at the atomic scale. This latter issue is the focus of the present review. Atomic scale simulation techniques can accelerate the development of new materials for nuclear wasteform applications and provide detailed information on their physical properties that cannot be easily accessed by experiment. The present article introduces examples of how atomic scale, computational modelling techniques have led to an improved understanding of current nuclear wasteform materials and also suggest how they may be used in the development of new wasteforms (C) 2013 Elsevier B.V. All rights reserved.

U2 - 10.1016/j.jnucmat.2013.05.012

DO - 10.1016/j.jnucmat.2013.05.012

M3 - Erthygl

VL - 441

SP - 29

EP - 39

JO - Journal of Nuclear Materials

JF - Journal of Nuclear Materials

SN - 0022-3115

IS - 1-3

ER -