Effect of ionizing radiation on the optical attenuation in polymer-clad silica fiber-optic waveguides
E. Joseph Friebele, Raymond E. Jaeger, George H. Sigel, Michael E. Gingerich
Abstract
E. Joseph Friebele, Raymond E. Jaeger, George H. Sigel, Michael E. Gingerich
Abstract
The optical attenuation induced in polymer-clad silica fiber-optic waveguides by low-dose ionizing radiation (0.5–14 MeV) has been found to be much greater than expected on the basis of previous high-dose measurements. The radiation sensitivity is dependent upon the purity and OH content of the silica and upon the radiation history of the fibers, but it does not appear to depend upon the drawing conditions nor on the limited radiation-induced loss in the polymer cladding. The damage is greater at short times following the irradiation, and the decay kinetics of different synthetic silica fibers are qualitatively the same.
OpenAlex reports 32 citations for this work. Citation counts describe recorded attention and do not establish research quality.
A contribution statement is not available in the OpenAlex record.
Method details are not available in the OpenAlex metadata.
Findings are not separately available in the OpenAlex metadata.
Limitations are not available in the OpenAlex metadata.
Application details are not available in the OpenAlex metadata.
The optical attenuation induced in polymer-clad silica fiber-optic waveguides by low-dose ionizing radiation (0.5–14 MeV) has been found to be much greater than expected on the basis of previous high-dose measurements. The radiation sensitivity is dependent upon the purity and OH content of the silica and upon the radiation history of the fibers, but it does not appear to depend upon the drawing conditions nor on the limited radiation-induced loss in the polymer cladding. The damage is greater at short times following the irradiation, and the decay kinetics of different synthetic silica fibers are qualitatively the same.
Key concepts: Cladding (metalworking), Ionizing radiation, Optical fiber, Attenuation, Materials science, Polymer, Radiation, Irradiation