Diffusional Properties of the Stage-III Defect in Copper. I. Experimental Results
- 1 July 1967
- journal article
- research article
- Published by AIP Publishing in Journal of Applied Physics
- Vol. 38 (8), 3051-3056
- https://doi.org/10.1063/1.1710061
Abstract
Measurements of the effects of 60Co γ‐ray irradiation have been made upon the dislocation internal friction and modulus defect in copper single crystals from 333° to 393°K. It is found that the number of pinning points which are nucleated on the in‐grown dislocations by the lattice defects produced by the irradiation depends upon the γ‐ray flux, or more directly, upon the concentration of defects in the dislocation core. At the smallest flux level available (1.3×109 photons/cm2/sec), it is found that the dislocation‐defect trapping curves are essentially linear, and that the slopes of the linear curves vary exponentially with temperature. These results form the basis of the analyses given in Parts II and III of this series.Keywords
This publication has 20 references indexed in Scilit:
- Diffusional Properties of the Stage-III Defect in Copper. III. Bulk DiffusionJournal of Applied Physics, 1967
- Diffusional Properties of the Stage-III Defect in Copper. II. A Model for Defect-Dislocation InteractionsJournal of Applied Physics, 1967
- Statistics of Jogs on Dislocations at EquilibriumJournal of Applied Physics, 1965
- Dose Dependence of the Dislocation Breakaway Stress in Neutron-Irradiated Copper as Measured by Amplitude-Dependent Internal FrictionJournal of Applied Physics, 1965
- Role of Thermodynamic Activity in Rate ProcessesThe Journal of Chemical Physics, 1964
- Overdamped resonance of dislocations in copperActa Metallurgica, 1962
- Kinetic Theory of Dislocation Climb. I. General Models for Edge and Screw DislocationsJournal of Applied Physics, 1962
- Elastic Constant—Internal Friction SpectrometerReview of Scientific Instruments, 1958
- The effect of gamma irradiation on the young's modulus of copperJournal of Physics and Chemistry of Solids, 1957
- Theory of Mechanical Damping Due to DislocationsJournal of Applied Physics, 1956