Synthesis, optical, structural, and radiation transmission properties of PbO/ Bi2O3/B2O3/Fe2O3 glasses: An experimental and in silico study

In this paper, a new glass combination containing PbO, Bi2O3, B2O3, and Fe2O3 has been synthesized, characterized, and studied in details for advanced optical and radiation shielding applications. The PbO excess was in the step of 10% at the expense of (Bi2O3+B2O3). The physical and optical parameters were experimentally measured for each prepared glass sample.The structure characterization of the glass specimens was performed by using both FTIR and XRD. Moreover, EPR spectra were studied to give a full understanding about the valence state and interaction of paramagnetic ions. Additionally, Monte Carlo method was utilized to design the simulation setup for studying the radiation propagation through the prepared samples. The obtained results indicate thatthe optical band gap values were found to be high with excess of PbO content. The EPR spectra have shown a high intense resonance signal at g approximate to 4.2 and mild intense signal located at g approximate to 2.1. The magnitudes of linear attenuation coefficients for the glasses at different energies shows that maximum (minimum) value of 290.39 (0.158), 322.67 (0.168), 367.13 (0.184), 431.04 (0.207), 502.32 (0.231), and 574.34 (0.0257) cm-1 was obtained for PBBF-0 - PBBF-50. This investigation lays the foundation for using the prepared glass system as a new candidate in advanced optical and shielding applications.

Automated summary

In this study, a new glass combination containing PbO, Bi2O3, B2O3, and Fe2O3 was synthesized, characterized, and studied for advanced optical and radiation shielding applications. Physical and optical parameters were experimentally measured, structure characterization was performed using FTIR and XRD, EPR spectra were studied, and a Monte Carlo method was utilized for simulation setup to study radiation propagation through the prepared samples. The results indicate potential for the prepared glass system in advanced optical and shielding applications.