The carbon atoms in defective graphites are arranged mainly in layers, with a spacing that is sample dependent and larger than that in high-perfection graphites. The generally accepted explanation for this variation is that the larger separations in more disordered graphite arise from poorer mutual orientation of the graphite layers ("turbostratic disorder"). Computer models of interstitials in supercells show that strings of interstitials along the hexagonal axis are unusually stable and might better explain the spacings observed and other properties, certainly for neutron-irradiated graphite, but possibly also for other graphites. © 1991
Iwata and Watanabe's model for the observed low-temperature specific heat of neutron-irradiated grap...
Samples of stage-2 chromium chloride graphite intercalation compounds have been studied by Scanning ...
Iwata and Watanabe’s model for the observed low-temperature specific heat of neutron-irradiated grap...
The carbon atoms in defective graphites are arranged mainly in layers, with a spacing that is sample...
Di-interstitial defects appear to play a key role in the microscopic understanding of radiation-indu...
The atomic structure of pure and defective graphite has been modelled using classical many body pote...
The major motivation of this study is the development of understanding of line defect behaviour such...
The mechanical and electrical properties of graphite and related materials such as multilayer graphe...
The microstructures of the binder in two grades of nuclear graphite, Gilsocarbon graphite and Pile G...
The diffusion of point defects after irradiation events in graphite is considered using high tempera...
Graphite acts as both a major structural component and moderator in nuclear reactors. Upon neutron i...
The atomic processes associated with energy storage and release in irradiated graphite have long bee...
International audienceIwata and Watanabe's model for the observed low-temperature specific heat of n...
Crystallographic defects play a key role in determining the properties of crystalline ma-terials. Th...
We present findings on the structure, energies and behaviour of defects in irradiated graphitic carb...
Iwata and Watanabe's model for the observed low-temperature specific heat of neutron-irradiated grap...
Samples of stage-2 chromium chloride graphite intercalation compounds have been studied by Scanning ...
Iwata and Watanabe’s model for the observed low-temperature specific heat of neutron-irradiated grap...
The carbon atoms in defective graphites are arranged mainly in layers, with a spacing that is sample...
Di-interstitial defects appear to play a key role in the microscopic understanding of radiation-indu...
The atomic structure of pure and defective graphite has been modelled using classical many body pote...
The major motivation of this study is the development of understanding of line defect behaviour such...
The mechanical and electrical properties of graphite and related materials such as multilayer graphe...
The microstructures of the binder in two grades of nuclear graphite, Gilsocarbon graphite and Pile G...
The diffusion of point defects after irradiation events in graphite is considered using high tempera...
Graphite acts as both a major structural component and moderator in nuclear reactors. Upon neutron i...
The atomic processes associated with energy storage and release in irradiated graphite have long bee...
International audienceIwata and Watanabe's model for the observed low-temperature specific heat of n...
Crystallographic defects play a key role in determining the properties of crystalline ma-terials. Th...
We present findings on the structure, energies and behaviour of defects in irradiated graphitic carb...
Iwata and Watanabe's model for the observed low-temperature specific heat of neutron-irradiated grap...
Samples of stage-2 chromium chloride graphite intercalation compounds have been studied by Scanning ...
Iwata and Watanabe’s model for the observed low-temperature specific heat of neutron-irradiated grap...