Journal of the Physical Society of Japan · 1972 · 26 citations · 28 references
Natural SciencesMaterials SciencePhysicsElectronic MaterialsMaterials PhysicsRadiation TransportDefects In Electronic MaterialsElectronic Transport ModelingRadiation Damage In MaterialsRadiation ResistanceActivation EnergyElectrical ResistivityElectron Beam Irradiation EffectsIrradiation DamageIrradiation Effects On MaterialsPoint DefectsPyrolytic GraphiteTransport Theory
The electrical resistivity changes by electron irradiation at 5 K and the isochronal annealing of resistivities in the temperature range 5-85 K (Stage I) in pyrolytic graphite are studied in order to get information on point defects. Both the a -axis and the c -axis resistivity changes by irradiation are explained by the ordinary transport theory with defect scattering. Small recoveries in Stage I are shown to be composed of four substages: I A (5-15 K); I B (15-45 K); I C (45-65 K); and I D (65-85 K). Effects of the irradiating electron energy, the radiation-doping and the graphitization temperature of samples on these substages are also studied. Substages I A and I B may be caused by the correlated rearrangement of close Frenkel pairs, where interstitial atoms form loose coupling with their own vacancies. The activation energy for I A is roughly estimated to be 0.027±0.004 eV. In I C the long-range free migration of interstitial atoms seems to occur.
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Principles of the theory of solids
L. Pincherle · Solid-State Electronics · 1965 · 288 citations
Atomic Migration in Monatomic Crystals
C. P. Flynn · Physical Review · 1968 · 201 citations
The thermal conductivity of pyrolytic graphite
Rex N. Taylor · Philosophical magazine · 1966 · 154 citations