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Survey of Recent Research Results for New Fluor Materials

Published online by Cambridge University Press:  10 February 2011

William A. Hollerman ,
Gary A. Glass  and
Steven A. Allison
William A. Hollerman
Affiliation:
Acadiana Research Laboratory, University of Southwestern Louisiana, Lafayette, Louisiana 70504
Gary A. Glass
Affiliation:
Acadiana Research Laboratory, University of Southwestern Louisiana, Lafayette, Louisiana 70504
Steven A. Allison
Affiliation:
Oak Ridge National Laboratory, Oak Ridge, Tennessee 37831
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Abstract

There is worldwide interest in the use of fluor materials that emit visible light when exposed to ionizing radiation. Typically, fluors are used as components in high performance electromagnetic calorimeters, down-hole oil well loggers, temperature sensors for equipment with high speed moving parts, and beam positioning systems for large particle accelerators. A candidate fluor should have a large fluorescence efficiency, small reduction in output as a function of exposure, intense visible fluorescence spectrum, large material density, and small prompt fluorescence decay time.

Over the last few years, new fluor materials have been located by organizations such as Oak Ridge National Laboratory, Lawrence Berkeley National Laboratory, and the Department of Defense. These new fluors, such as YAIO3:Ce, YSiO5:Ce, GdSiO5:Ce, Y2O2S doped with Tb, Pr, and Eu, and Gd2O0S doped with Th, Pr, and Eu, show a great deal of promise for use in the applications listed above.

This paper will present a summary of fluor research completed by the authors over the last ten years. These results will be used to establish a fluor characterization program at the Acadiana Research Laboratory (ARL) that will move it to the front of this developing technology.

Type
Research Article
Information
MRS Online Proceedings Library (OPL) , Volume 560: Symposium E – Luminescent Materials , 1999 , 335
Copyright
Copyright © Materials Research Society 1999

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References

REFERENCES

1 Allison, S.W. and Gillies, G.T., Remote Thermometry With Thermographic Phosphors: Instrumentation andApplications, Review of Scientific Instruments, 68 (7), 2615 (1997).Google Scholar
2. Dowell, L.J., Giles, G.T., Allison, S.W., and Cates, M.R., A Research Bibliography on Thermographic Phosphors, J. of Luminescence, 36 (6), 375 (1987).Google Scholar
3. Derenzo, S.E., Moses, W.W., Cahoon, J.L, DeVol, T.A., and Boatner, L.O., IEEE Nuclear Science Symposium Conference Records, ICH3100-5, 1, 143 (1992).Google Scholar
4. Derenzo, S.E. and Moses, W.W., CRYSTAL 2000 International Workshop on Heavy Scintillators for Scientific and Industrial Applications, Chamoinix France (1992).Google Scholar
5. Hollerman, W.A., Proton Induced Fluorescence From Yttrium and Gadolinium Compounds, Ph.D. Dissertation, Alabama A&M University, 1996 (unpublished).Google Scholar
6. Anderson, G. K. and Locker, D. L., Scintillator Development for WAFFOG Beam Sensing, 1989 (unpublished).Google Scholar
7. Birks, J.B. and Black, F.A., Deterioration of Anthracene under Alpha-Particle Irradiation, Proceeding of the Physical Society (London) A64, 511 (1951).Google Scholar
8. Hollerman, W.A., Fisher, J.H., Holland, L.R., Jenkins, G.M., Nisen, D.B., Williams, E.K., and Foster, C.C., Measurement of Fluorescence Phenomena from Yttrium and Gadolinium Fluors Using a 45 MeV Proton Beam, Nuclear Instruments and Methods in Physics Research A353, 20–23 (1994).Google Scholar
9. Holland, L.R., Jenkins, G.M., Fisher, J.H., Hollerman, W.A., and Shelby, G.A., Efficiency and Radiation Hardness of Phosphors in a Proton Beam, Nuclear Instruments and Methods in Physics Research, B56/57, 1239–1241 (1991).Google Scholar
10. Hollerman, W.A., Fisher, J.H., Shelby, G.A., Holland, L.R., and Jenkins, G.M., Proton Damage Measurements of Rare Earth Oxide Scintillators, IEEE Transactions on Nuclear Science, 38 (2), 184–187 (1991).Google Scholar
11. Hollerman, W.A., Holland, L.R., Fisher, J.H., Shelby, G.A., and Jenkins, G.M., Spectroscopic Analysis of Proton Induced Fluorescence From Yttrium and Gadolinium Oxysulfide Phosphors, IEEE Transactions on Nuclear Science, 39 (6), 2295–2297 (1992).Google Scholar
12. Hollerman, W.A., Holland, L.R., Nisen, D.B., Fisher, J.H., and Shelby, G.A., Development of the Fluorescent Materials Test Chamber, Nuclear Instruments and Methods in Physics Research B68, 28–31 (1992).Google Scholar
13. Fisher, J. H., Hollerman, W.A., Shelby, G. A., Holland, L.R., Jenkins, G.M., and Nisen, D.B., Spectroscopic Analysis of Proton Induced Fluorescence From Cerium Doped Yttrium Aluminum Garnet, Nuclear Instruments and Methods in Physics Research, B80/81, 1207–1209 (1993).Google Scholar
14. Hollerman, W.A., Fisher, J.H., Holland, L.R., and Czirr, J.B., Spectroscopic Analysis of Proton Induced Fluorescence From Yttrium Orthosilicate, IEEE Transactions on Nuclear Science, 40 (5), 1355–1358 (1993).Google Scholar
15. Hollerman, W.A., Fisher, J.H., Ila, D., Jenkins, G.M., and Holland, L.R., Proton Induced Fluorescence Properties of Terbium Gallium Garnet, Journal of Materials Research, 10 (8), 1861–1863 (1995).Google Scholar
16. Hollerman, W.A., Jenkins, G.M., Fisher, J.H., Holland, L.R., Williams, E.K., Maleki, H., and Foster, C.C., Temperature Dependent Fluorescence From Gd2O2S: Tb Induced by 45 MAeV Proton Irradiation, Journal of Nuclear Materials, 224, 314–318 (1995).Google Scholar