Thermal annealing of nuclear graphite during in-situ electron irradiation

We have investigated the in-situ electron irradiation of nuclear graphite within a 200 kV transmission electron microscope at temperatures between 83 K and 473 K. For each temperature, nuclear grade Pile Grade A graphite specimens were subject to a fluence of ca. 1022 electrons cm−2, and transmissio...

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Published inCarbon (New York) Vol. 115; pp. 659 - 664
Main Authors Freeman, H.M., Scott, A.J., Brydson, R.M.D.
Format Journal Article
LanguageEnglish
Published New York Elsevier Ltd 01.05.2017
Elsevier BV
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ISSN0008-6223
1873-3891
DOI10.1016/j.carbon.2017.01.057

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Abstract We have investigated the in-situ electron irradiation of nuclear graphite within a 200 kV transmission electron microscope at temperatures between 83 K and 473 K. For each temperature, nuclear grade Pile Grade A graphite specimens were subject to a fluence of ca. 1022 electrons cm−2, and transmission electron micrographs and selected area diffraction patterns were collected during electron beam exposure. By considering a critical fluence, at which the graphite (002) d-spacing increased by 10%, a temperature threshold for damage has been determined. Below ca. 420 K, electron irradiation caused significant net structural damage: fragmenting basal planes and producing a tortuous nanotexture. Above this temperature the effects of thermal annealing became more prevalent, maintaining the structure even at much higher fluences. We have derived activation energies for the annealing processes operative in these two temperature regimes and, via a comparison with theoretical predictions have, for the first time, associated these with specific recovery processes. [Display omitted]
AbstractList We have investigated the in-situ electron irradiation of nuclear graphite within a 200 kV transmission electron microscope at temperatures between 83 K and 473 K. For each temperature, nuclear grade Pile Grade A graphite specimens were subject to a fluence of ca. 1022 electrons cm−2, and transmission electron micrographs and selected area diffraction patterns were collected during electron beam exposure. By considering a critical fluence, at which the graphite (002) d-spacing increased by 10%, a temperature threshold for damage has been determined. Below ca. 420 K, electron irradiation caused significant net structural damage: fragmenting basal planes and producing a tortuous nanotexture. Above this temperature the effects of thermal annealing became more prevalent, maintaining the structure even at much higher fluences. We have derived activation energies for the annealing processes operative in these two temperature regimes and, via a comparison with theoretical predictions have, for the first time, associated these with specific recovery processes. [Display omitted]
We have investigated the in-situ electron irradiation of nuclear graphite within a 200 kV transmission electron microscope at temperatures between 83 K and 473 K. For each temperature, nuclear grade Pile Grade A graphite specimens were subject to a fluence of ca. 1022 electrons cm−2, and transmission electron micrographs and selected area diffraction patterns were collected during electron beam exposure. By considering a critical fluence, at which the graphite (002) d-spacing increased by 10%, a temperature threshold for damage has been determined. Below ca. 420 K, electron irradiation caused significant net structural damage: fragmenting basal planes and producing a tortuous nanotexture. Above this temperature the effects of thermal annealing became more prevalent, maintaining the structure even at much higher fluences. We have derived activation energies for the annealing processes operative in these two temperature regimes and, via a comparison with theoretical predictions have, for the first time, associated these with specific recovery processes.
Author Freeman, H.M.
Brydson, R.M.D.
Scott, A.J.
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Snippet We have investigated the in-situ electron irradiation of nuclear graphite within a 200 kV transmission electron microscope at temperatures between 83 K and...
We have investigated the in-situ electron irradiation of nuclear graphite within a 200 kV transmission electron microscope at temperatures between 83 K and 473...
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SubjectTerms Activation energy
Annealing
Diffraction patterns
Electron irradiation
Electron micrographs
electrons
Fluence
Fragmentation
graphene
Graphite
irradiation
Photomicrographs
Planes
prediction
Radiation damage
Structural damage
Temperature
transmission electron microscopes
Title Thermal annealing of nuclear graphite during in-situ electron irradiation
URI https://dx.doi.org/10.1016/j.carbon.2017.01.057
https://www.proquest.com/docview/1917652401
https://www.proquest.com/docview/2000363477
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