Journal of Applied Physics · 1985 · 76 citations · 11 references
Natural SciencesMaterials EngineeringMaterials ScienceMaterials ChemistryPolymer ChemistryPolymer MaterialsIon ImplantationPolymer DegradationRadiation Damage In MaterialsChemical Destruction PathwaysDefect Dynamics In Irradiated MaterialsIonizationIonization MechanismsIrradiation Effects On MaterialsPolymer Radiation DamageRadiation Damage MechanismsRadiation Degradation
It is found that light ions (6Li, 10B) distribute neither according to their calculated range nor to their nuclear damage distributions but according to their ionization distributions after implantation into organic polymers. Also, the profile of chemical destruction after low dose light ion implantation (typically 1012–1014 ions/cm2) into organic foils obeys the ionization distribution rather than the range or nuclear damage distributions. After annealing, or at higher implanted doses, a slight shift of the implantation or destruction profiles towards the nuclear damage distribution is found. The reason for this implantation behavior may be partly understood in terms of diffusion and subsequent recombination with the created radicals. Li and B distributions in carbon (which may be regarded as the final product of polymer destruction) show a shape which can be described by range profiles with subsequent diffusion and trapping at homogeneously distributed defects. In contrast to light ions, implanted heavy ions distribute in polymers essentially according to their range profiles, due to negligible diffusion after implantation.
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Large conductivity changes in ion beam irradiated organic thin films
Stephen R. Forrest, M. L. Kaplan, P. H. Schmidt et al. · Applied Physics Letters · 1982 · 164 citations
Monte Carlo simulation of ion beam penetration in solids
I. Adesida, L. Karapiperis · Radiation Effects · 1982 · 45 citations