Shock wave effect on scandium oxide (Sc2O3) for highly efficient environment remediation application

Abstract

Scandium oxide (Sc₂O₃), renowned for its exceptional properties, has enticed expressive scientific outfits about its prospective applications in diversified fields, including catalytic applications. In this study, the influence of shock waves on the structure and morphology of Sc₂O₃ was investigated. Its impact on highly efficient photocatalytic dye degradation applications have also been explored. Through experimental investigations, the role of shock waves in modifying the Sc₂O₃ structural characteristics has been manifested, with specific emphasis on its surface area, crystallinity, and particle size distribution. Sc₂O₃, with its altered structural morphology post-shock wave exposure, exhibited improved biocompatibility and surface area, rendering it an attractive candidate for various applications. These properties open avenues for its utilization in drug delivery systems and biocompatible coatings. In photocatalytic dye degradation, the shock wave-induced structural fluctuations in Sc₂O₃ are harnessed to enhance its photocatalytic performance. The increased surface area and altered crystallinity contributed to enhanced light absorption and more efficient electron-hole pair generation, resulting in superior photocatalytic activity. The findings presented here have the potential to revolutionize the utilization of Sc₂O₃ in cutting-edge technologies and pave the way for more sustainable and efficient solutions in biotechnology and environmental conservation.