Characterization and luminescent properties of thermally annealed olivines

Olivine is an iron-magnesium solid solution silicate (Mg,Fe)2SiO4 and it is probably one of the most abundant mineral phase in the Solar System, it is present in the primitive carbonaceous meteorites (i.e Allende), and in ordinary chondritic meteorite, comets or terrestrial planets. The olivine grai...

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Veröffentlicht in:Radiation measurements 2013-09, Vol.56, p.262-266
Hauptverfasser: Colin-Garcia, Maria, Correcher, Virgilio, Garcia-Guinea, Javier, Heredia-Barbero, Alejandro, Roman-Lopez, Jesus, Ortega-Gutierrez, Fernando, Negron-Mendoza, Alicia, Ramos-Bernal, Sergio
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container_issue
container_start_page 262
container_title Radiation measurements
container_volume 56
creator Colin-Garcia, Maria
Correcher, Virgilio
Garcia-Guinea, Javier
Heredia-Barbero, Alejandro
Roman-Lopez, Jesus
Ortega-Gutierrez, Fernando
Negron-Mendoza, Alicia
Ramos-Bernal, Sergio
description Olivine is an iron-magnesium solid solution silicate (Mg,Fe)2SiO4 and it is probably one of the most abundant mineral phase in the Solar System, it is present in the primitive carbonaceous meteorites (i.e Allende), and in ordinary chondritic meteorite, comets or terrestrial planets. The olivine grains in those bodies have been exposed to different radiation sources like UV, electrons, cosmic radiation, etc. Here, we explore the effect of ionizing and non ionizing radiation on the luminescence emission of the two well-characterised olivine samples from Mexico and Spain by means of cathodoluminescence and thermoluminescence. The analyses by X-ray dispersive energies in the scanning electron microscopy show differences between the samples in the amount of iron and magnesium and also show traces of rare elements. Olivine exhibits spectral cathodoluminescence emissions of low intensity, explained for the quenching of the luminescence of the iron, and sharp signals assigned as impurities. Cathodoluminescence and thermoluminescence glow curves of the natural, and UV induced olivine samples were obtained. Our results show that thermal treatments at 1100 °C change the mineral molecular structure and the luminescence properties of this mineral phase. These results confirm an active participation of physical factors influencing the luminescent properties of olivine. ► Luminescent properties of two olivines samples (Mexican and Spanish) were explored. ► EDS show different iron and magnesium content and traces of rare elements on both. ► Olivine exhibits spectral CL emissions of low intensity due to the quenching of iron. ► Treatments at 1100 °C change the mineral structure and its response to UV radiation.
doi_str_mv 10.1016/j.radmeas.2013.02.008
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subjects Cathodoluminescence
Earth sciences
Earth, ocean, space
Exact sciences and technology
Geochronology
Iron
Isotope geochemistry. Geochronology
Luminescence
Magnesium
Minerals
Olivine
Solar system
Thermal annealing
Thermoluminescence
title Characterization and luminescent properties of thermally annealed olivines
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