Irradiated Material

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Michael Preuss - One of the best experts on this subject based on the ideXlab platform.

  • novel methods for recording stress strain curves in proton Irradiated Material
    Scientific Reports, 2020
    Co-Authors: Albert Smith, Alistair Garner, Jack Donoghue, David Lunt, Allan Harte, Keith Wilford, P J Withers, Michael Preuss
    Abstract:

    Proton irradiation is often used as a proxy for neutron irradiation but the Irradiated layer is typically <50 μm deep; this presents a problem when trying to obtain mechanical test data as a function of irradiation level. Two novel methodologies have been developed to record stress-strain curves for thin proton-Irradiated surface layers of SA-508-4N ferritic steel. In the first case, in-situ loading experiments are carried out using a combination of X-ray diffraction and digital image correlation on the near surface region in order to measure stress and strain, thereby eliminating the influence of the non-Irradiated volume. The second approach is to manufacture small-scale tensile specimens containing only the proton Irradiated volume but approaching the smallest representative volume of the Material. This is achieved by high-speed focused ion beam (FIB) milling though the application of a Xe+ Plasma-FIB (PFIB). It is demonstrated that both techniques are capable of recording the early stage of uniaxial flow behaviour of the Irradiated Material with sufficient accuracy providing a measure of irradiation-induced shift of yield strength, strain hardening and tensile strength.

  • Novel Methods for Recording Stress-Strain Curves in Proton Irradiated Material.
    Scientific reports, 2020
    Co-Authors: Albert D. Smith, Alistair Garner, Jack Donoghue, David Lunt, Allan Harte, Keith Wilford, P J Withers, Michael Preuss
    Abstract:

    Proton irradiation is often used as a proxy for neutron irradiation but the Irradiated layer is typically

Allan Harte - One of the best experts on this subject based on the ideXlab platform.

  • novel methods for recording stress strain curves in proton Irradiated Material
    Scientific Reports, 2020
    Co-Authors: Albert Smith, Alistair Garner, Jack Donoghue, David Lunt, Allan Harte, Keith Wilford, P J Withers, Michael Preuss
    Abstract:

    Proton irradiation is often used as a proxy for neutron irradiation but the Irradiated layer is typically <50 μm deep; this presents a problem when trying to obtain mechanical test data as a function of irradiation level. Two novel methodologies have been developed to record stress-strain curves for thin proton-Irradiated surface layers of SA-508-4N ferritic steel. In the first case, in-situ loading experiments are carried out using a combination of X-ray diffraction and digital image correlation on the near surface region in order to measure stress and strain, thereby eliminating the influence of the non-Irradiated volume. The second approach is to manufacture small-scale tensile specimens containing only the proton Irradiated volume but approaching the smallest representative volume of the Material. This is achieved by high-speed focused ion beam (FIB) milling though the application of a Xe+ Plasma-FIB (PFIB). It is demonstrated that both techniques are capable of recording the early stage of uniaxial flow behaviour of the Irradiated Material with sufficient accuracy providing a measure of irradiation-induced shift of yield strength, strain hardening and tensile strength.

  • Novel Methods for Recording Stress-Strain Curves in Proton Irradiated Material.
    Scientific reports, 2020
    Co-Authors: Albert D. Smith, Alistair Garner, Jack Donoghue, David Lunt, Allan Harte, Keith Wilford, P J Withers, Michael Preuss
    Abstract:

    Proton irradiation is often used as a proxy for neutron irradiation but the Irradiated layer is typically

Alistair Garner - One of the best experts on this subject based on the ideXlab platform.

  • Novel Methods for Recording Stress-Strain Curves in Proton Irradiated Material.
    Scientific reports, 2020
    Co-Authors: Albert D. Smith, Alistair Garner, Jack Donoghue, David Lunt, Allan Harte, Keith Wilford, P J Withers, Michael Preuss
    Abstract:

    Proton irradiation is often used as a proxy for neutron irradiation but the Irradiated layer is typically

  • novel methods for recording stress strain curves in proton Irradiated Material
    Scientific Reports, 2020
    Co-Authors: Albert Smith, Alistair Garner, Jack Donoghue, David Lunt, Allan Harte, Keith Wilford, P J Withers, Michael Preuss
    Abstract:

    Proton irradiation is often used as a proxy for neutron irradiation but the Irradiated layer is typically <50 μm deep; this presents a problem when trying to obtain mechanical test data as a function of irradiation level. Two novel methodologies have been developed to record stress-strain curves for thin proton-Irradiated surface layers of SA-508-4N ferritic steel. In the first case, in-situ loading experiments are carried out using a combination of X-ray diffraction and digital image correlation on the near surface region in order to measure stress and strain, thereby eliminating the influence of the non-Irradiated volume. The second approach is to manufacture small-scale tensile specimens containing only the proton Irradiated volume but approaching the smallest representative volume of the Material. This is achieved by high-speed focused ion beam (FIB) milling though the application of a Xe+ Plasma-FIB (PFIB). It is demonstrated that both techniques are capable of recording the early stage of uniaxial flow behaviour of the Irradiated Material with sufficient accuracy providing a measure of irradiation-induced shift of yield strength, strain hardening and tensile strength.

  • high resolution crystallographic and chemical characterisation of iodine induced stress corrosion crack tips formed in Irradiated and non Irradiated zirconium alloys
    Journal of Nuclear Materials, 2019
    Co-Authors: Conor Gillen, Alistair Garner, Pia Tejland, Chris Jones, Katie L Moore, Philipp Frankel
    Abstract:

    Abstract High resolution crystallographic and chemical analysis has been performed on iodine-induced stress corrosion crack tips taken from Irradiated and non-Irradiated zirconium alloys. Defuelled cladding tubes were subjected to mandrel testing and subsequent analysis of the crack tip region showed the predominance of transgranular cracking on non-basal planes for the first time in Irradiated Material. In a separate mandrel-tested crack tip sample, iodine was unambiguously identified in the crack tip region using both STEM-EDX and NanoSIMS. For comparison, non-Irradiated C-ring samples were subjected to testing in iodine-ethanol solution, subsequent crack tip analysis showed large levels of intergranular attack and no significant iodine segregation.

P J Withers - One of the best experts on this subject based on the ideXlab platform.

  • novel methods for recording stress strain curves in proton Irradiated Material
    Scientific Reports, 2020
    Co-Authors: Albert Smith, Alistair Garner, Jack Donoghue, David Lunt, Allan Harte, Keith Wilford, P J Withers, Michael Preuss
    Abstract:

    Proton irradiation is often used as a proxy for neutron irradiation but the Irradiated layer is typically <50 μm deep; this presents a problem when trying to obtain mechanical test data as a function of irradiation level. Two novel methodologies have been developed to record stress-strain curves for thin proton-Irradiated surface layers of SA-508-4N ferritic steel. In the first case, in-situ loading experiments are carried out using a combination of X-ray diffraction and digital image correlation on the near surface region in order to measure stress and strain, thereby eliminating the influence of the non-Irradiated volume. The second approach is to manufacture small-scale tensile specimens containing only the proton Irradiated volume but approaching the smallest representative volume of the Material. This is achieved by high-speed focused ion beam (FIB) milling though the application of a Xe+ Plasma-FIB (PFIB). It is demonstrated that both techniques are capable of recording the early stage of uniaxial flow behaviour of the Irradiated Material with sufficient accuracy providing a measure of irradiation-induced shift of yield strength, strain hardening and tensile strength.

  • Novel Methods for Recording Stress-Strain Curves in Proton Irradiated Material.
    Scientific reports, 2020
    Co-Authors: Albert D. Smith, Alistair Garner, Jack Donoghue, David Lunt, Allan Harte, Keith Wilford, P J Withers, Michael Preuss
    Abstract:

    Proton irradiation is often used as a proxy for neutron irradiation but the Irradiated layer is typically

Keith Wilford - One of the best experts on this subject based on the ideXlab platform.

  • novel methods for recording stress strain curves in proton Irradiated Material
    Scientific Reports, 2020
    Co-Authors: Albert Smith, Alistair Garner, Jack Donoghue, David Lunt, Allan Harte, Keith Wilford, P J Withers, Michael Preuss
    Abstract:

    Proton irradiation is often used as a proxy for neutron irradiation but the Irradiated layer is typically <50 μm deep; this presents a problem when trying to obtain mechanical test data as a function of irradiation level. Two novel methodologies have been developed to record stress-strain curves for thin proton-Irradiated surface layers of SA-508-4N ferritic steel. In the first case, in-situ loading experiments are carried out using a combination of X-ray diffraction and digital image correlation on the near surface region in order to measure stress and strain, thereby eliminating the influence of the non-Irradiated volume. The second approach is to manufacture small-scale tensile specimens containing only the proton Irradiated volume but approaching the smallest representative volume of the Material. This is achieved by high-speed focused ion beam (FIB) milling though the application of a Xe+ Plasma-FIB (PFIB). It is demonstrated that both techniques are capable of recording the early stage of uniaxial flow behaviour of the Irradiated Material with sufficient accuracy providing a measure of irradiation-induced shift of yield strength, strain hardening and tensile strength.

  • Novel Methods for Recording Stress-Strain Curves in Proton Irradiated Material.
    Scientific reports, 2020
    Co-Authors: Albert D. Smith, Alistair Garner, Jack Donoghue, David Lunt, Allan Harte, Keith Wilford, P J Withers, Michael Preuss
    Abstract:

    Proton irradiation is often used as a proxy for neutron irradiation but the Irradiated layer is typically