Abstract

In this research, the study of two dopants, strontium oxide and manganese oxide were thoroughly investigated based on the elastic properties for the purpose of high strength glass application. The melt quenching technique method was used to synthesize two series of borotellurite glass systems doped with manganese and strontium. Elastic measurement, X-ray diffraction (XRD) and Fourier transform infrared spectroscopy (FTIR) were used to characterize the prepared glass samples. The increment of molar volume confirmed the theory that molar volume is inversely proportional to the density parameters. A broad hump was observed during XRD as the samples shows pure amorphous nature. In FTIR, the vibrations of the functional group of the tellurite network were recorded such as TeO4 trigonal bipyramids and TeO3 trigonal pyramids, by addition of both dopants. On the other hand, ultrasonic velocity was used to determine the elastic moduli of the glass such as bulk modulus, shear modulus, longitudinal modulus, Young’s Modulus, microhardness and Poisson’s ratio which showed decreasing and increasing trends with the increased concentration of MnO2 and SrO respectively. It is also inferred that strontium oxide has better elastic properties than manganese oxide.

Highlights

  • Nowadays, glass is widely known as one of the most versatile materials on Earth which has been revealed in various forms for centuries

  • The X-ray diffraction patterns of the prepared borotellurite glasses doped with manganese dioxide and strontium oxide were recorded

  • In this research the melt quenching technique method was used to synthesize two series of borotellurite glass systems doped with manganese oxide and strontium oxide with chemical compositions of [(TeO2)0.7 (B2O3)0.3]1-x [MnO2]x and [(TeO2)0.7 (B2O3)0.3]1-x [SrO]x with different molar fractions x = 0.01, 0.02, 0.03, 0.04, and 0.05

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Summary

Introduction

Glass is widely known as one of the most versatile materials on Earth which has been revealed in various forms for centuries. It can be defined as an amorphous solid that fuses together at its liquid state and undergoes rapid cooling to form rigid structures without having sufficient time to arrange to a crystalline structural order [1]. The properties of glass can be altered and changed when it combines with other materials. There are many research that have been done by doping various elements to the glass system in order to produce outstanding glass material

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