Ag/AgBr/TiO₂	420 nm	E. coli	2.76E−01	350 W Xenon lamp with λ > 420 nm made by cut-off filter	[96]
				Photocatalyst synthesized by deposition-precipitation method
				0.2 g/l of photocatalyst used
Ag-Bi₂WO₆	420 nm	E. coli	0.1535	500 W xenon lamp with λ > 420 nm made by cut-off filter	[87]
		S. epidermidis	0.06108	0.5 mg/ml of photocatalyst used
				Photocatalyst synthesized by facile alcohol-thermal process
AgBr/TiO₂	420 nm	E. coli	0.2609	Photocatalyst synthesized by deposition-precipitation method	[90]
		S. aureus	0.3914	350 W xenon lamp with λ > 420 nm made by cut-off filter
				0.2 g/l of photocatalyst used
Ag₃PO₄/TiO₂	400 nm	E. coli	0.1314	Photocatalyst synthesized by direct precipitation method	[88]
				300 W xenon lamp with λ > 400 nm made by cut-off filter
				10 mg/L of photocatalyst used
AgI/TiO₂	420 nm	E. coli	2.99E−01	350 W xenon lamp with λ > 420 nm made by cut-off filter	[97]
		S. aureus	0.1612	Photocatalyst synthesized by deposition-precipitation method
				0.2 g/l of photocatalyst used
Ag₃PO₄/TiO₂/Fe₃O₄	420 nm	E. coli	1.243	300 W xenon lamp with λ > 420 nm made by cut-off filter	[98]
				Photocatalyst synthesized by in-situ hydrolysis, deposition-precipitation method
				0.30 mg photocatalyst was used in an anti-microbial film
Ag/g-C3N₄	420 nm	E. coli	1.84E−01	300 W xenon lamp with λ > 420 nm made by cut-off filter	[99]
				Complex synthesis procedure
				0.1 g/l photocatalyst used
Ag/AgBr/WO₃·3H₂O	400 nm	E. coli	0.0693	300 W xenon lamp with λ > 400 nm made by cut-off filter	[100]
				Photocatalyst synthesized by Ion-Exchange method
				0.1 g/l of photocatalyst used
Ag/AgBr/BiOBr	400 nm	E. coli	0.4621	Photocatalyst synthesized by solvothermal-ion exchange method	[101]
				300 W xenon lamp with λ > 400 nm made by cut-off filter