Novel Ag3PO4 modified tubular carbon nitride with visible-light-driven peroxymonosulfate activation: A wide pH tolerance and reaction mechanism

In Situ Coupling Carbon Defective C3N5 Nanosheet with Ag2CO3 for Effective Degradation of Methylene Blue and Tetracycline Hydrochloride

“…Among these modification strategies, coupling with other semiconductors to form heterojunction can effectively improve the performance of photocatalysts [ 32 ]. In recent years, a large number of silver-based nanomaterials, such as AgCl [ 33 ], Ag 2 CrO 4 [ 34 ], Ag 3 PO 4 [ 35 ], and AgVO 3 [ 36 ], have been shown to be novel photocatalysts with visible light responsiveness. Ag 2 CO 3 is a p-type semiconductor photocatalyst with a narrow band gap and good visible light activity, and it has gained extensive attention for its excellent degradation performance against organic pollutants [ 37 ].…”

Fabrication of polypyrrole-sensitized Ag3PO4/g-C3N4 Z-scheme heterojunction for photocatalytic and antibacterial activity

“…This makes it difficult for the catalyst to absorb TC, which lowers the photocatalytic efficiency. 11,54 Taking into account these variables, the catalyst demonstrated relatively the highest proportion of TC degradation at pH 6.5, which is ideal and was selected for the subsequent experiment.…”

“…This makes it difficult for the catalyst to absorb TC, which lowers the photocatalytic efficiency. 11,54 Taking into account these variables, the catalyst demonstrated relatively the highest proportion of TC degradation at pH 6.5, which is ideal and was selected for the subsequent experiment. Effect of photocatalyst dosage on the photocatalytic performance: The amount of AP/0.5-PPy/20-CN photocatalyst can impact the removal efficiency of TC pollutants under simulated sunlight irradiation.…”

Efficient Visible-Light-Responsive Ag3PO4/g-C3N4/Hydroxyapatite Photocatalyst (from Oyster Shells) for the Degradation of Methylene Blue: Preparation, Properties and Mechanism

“…The peak at 398.03 eV is considered to be CN=C in sp 2 triazine rings [30,31], and the peaks at 399.41 eV and 400.63 eV belong to the tertiary N group N-(C) 3 and terminal amino groups with hydrogen [32,33]. The peak at 403.72 eV is likely caused by π−π* excitation between stacked interlayers [34][35][36]. In Figure 4d, there are two obvious peaks at 367.87 eV and 373.87 eV in the Ag 3d region, which are generated by Ag + 3d 5/2 and Ag + 3d 3/2 , respectively.…”