Defect trapping of deuterium implanted in aluminium
- 1 August 1982
- journal article
- Published by IOP Publishing in Journal of Physics F: Metal Physics
- Vol. 12 (8) , 1567-1576
- https://doi.org/10.1088/0305-4608/12/8/005
Abstract
The behaviour of deuterium implanted in Al was studied by the D(3He,p)4He and the D(d,p)T nuclear reactions. Changes of the depth profiles on the deuterium after heat treatments indicated that the implanted deuterium was trapped by the defect produced during the deuterium implantation and the release probability of the trapped deuterium increased as the specimen temperature was raised. Assuming a thermal equilibrium locally in the region of high defect concentration, the trapping energy of deuterium in Al was determined to be 0.12 eV. Since the release probability for the single crystal was considerably larger than that for the polycrystal specimens, the deuterium was considered to be strongly trapped in the grain boundaries. Distributions of displaced Al atoms and the recovery of the lattice damage by annealing were measured by the channelling technique.Keywords
This publication has 10 references indexed in Scilit:
- Defect trapping of gas atoms in metalsNuclear Instruments and Methods, 1981
- Deep deuterium traps in Y-implanted FeApplied Physics Letters, 1980
- Deuterium enrichment during ion bombardment in VD0.01 alloysNuclear Instruments and Methods, 1980
- Calculated energies and geometries for hydrogen impurities in Al and MgJournal of Physics F: Metal Physics, 1979
- Defect trapping of ion-implanted deuterium in FeJournal of Applied Physics, 1979
- Trapping of hydrogen isotopes in molybdenum and niobium predamaged by ion implantationJournal of Applied Physics, 1977
- A study of hydrogen implanted in aluminiumPhysics Letters A, 1976
- New precision technique for measuring the concentration versus depth of hydrogen in solidsApplied Physics Letters, 1976
- Depth profiling ofandin solids using theresonancePhysical Review B, 1974
- Depth Profiles of the Lattice Disorder Resulting from Ion Bombardment of Silicon Single CrystalsJournal of Applied Physics, 1970