Overall, the SEM findings validate the synthesis procedure and underscore the structural features that contribute to the photocatalysts' activity in degrading pollutants like CIP. Complementary characterization techniques and additional optimization could further enhance the performance and applicability of these materials for environmental remediation. The degradation studies of CIP for the tri-doped photocatalysts i.e., B1Ce1Ag0.1TiO2, B1Ce1Ag0.06TiO2, and B1Ce0.1Ag0.06TiO2 were carried out under UV-A light at room temperature for three different concentrations of CIP (Fig. ) at a catalyst loading of 1 g/L. To compare the tridoped catalyst performance with TiO2, the degradation study was carried out with TiO2. TiO2 showed almost 100% degradation in all the cases which is expected as this catalyst works more efficiently under UV irradiation. Also compared to TiO2, the tridoped photocatalysts do not show significantly better adsorption. From Fig. , it is evident that B1Ce1Ag0.1TiO2 is the best performing catalysts across the concentrations of CIP studied giving around 54% at 10 ppm concentration. The photocatalytic degradation of ciprofloxacin (CIP), a widely used antibiotic, has become a critical research area due to its environmental persistence and adverse effects on ecosystems. Tridoped TiO₂ photocatalysts with co-doping of boron (B), cerium (Ce), and silver (Ag) offer promising avenues for enhancing degradation efficiency. This study investigates the performance of three tri-doped TiO₂ photocatalysts-B1Ce1Ag0.1TiO₂, B1Ce1Ag0.06TiO₂, and B1Ce0.1Ag0.06TiO₂-compared to bare TiO₂ under UV-A light irradiation for different CIP concentrations (10 ppm, 20 ppm, and 30 ppm) at room temperature.