journal article·2015-11Open access

Effect of lead fluoride incorporation on the structure and luminescence properties of tungsten sodium phosphate glasses

Rachel Prado Russo Delorenzo Nardi, Celso Eduardo Braz, Andrea S.S. de Camargo, Sidney J.L. Ribeiro, Lucas A. Rocha, Fábia Castro Cassanjes, Gael Poirier

Optical Materials· Volume 49

Abstract

Abstract Tungsten phosphate glasses are known to be promising materials for several applications in optics such as non linear optical properties, lower phonon energy or photochromic effects related with tungsten oxide incorporation inside the phosphate network. In this study, lead fluoride has been incorporated in a 60NaPO3–40WO3 glass composition according to the ternary molar compositions (100 − x)[0.6NaPO3–0.4WO3]–xPbF2 with x varying from 0 to 60 mol%. The structural changes as a function of composition were investigated by thermal analysis, UV–visible absorption, Raman spectroscopy, X-ray diffraction of the crystallized samples, and Eu3+ emission in the visible. While DSC analyzes points out a strong decrease in the glass network connectivity and higher crystallization tendency with increasing PbF2 contents, Raman spectra clearly identify a progressive incorporation of PbF2 in the phosphate network with the formation of terminal P F and W F bonds. These results are also in agreement with the crystallization of β-PbF2 observed for the most lead fluoride concentrated samples. Investigation of Eu3+ emission data in the visible showed longer 5D0 excited state lifetime values and higher quantum efficiencies. These results are discussed in terms of the assumption of higher local symmetry around Eu3+ with increasing PbF2 contents.
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Research context

OpenAlex topics: Luminescence Properties of Advanced Materials · Glass properties and applications · Lanthanide and Transition Metal Complexes

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