A　series　of　Bi-Ti　composited　photocatalysts　with　different　molar　ratio　of　Bi/Ti　(0.01:1(1%),　0.02:1(2%),　0.04:1(4%),　and　0.05:1(5%))　and　calcination　temperature　(400　degrees　C,　500　degrees　C,　and　600　degrees　C)　were　prepared　by　sol-hydrothermal　method.　The　properties　of　as-prepared　photocatalysts　were　characterized　by　X-ray　powder　diffraction,　scanning　electron　microscopy,　transmission　electron　microscopy,　X-ray　photo-electron　spectroscopy,　Brunauer-Emmett-Teller,　and　ultraviolet-visible　diffuse　reflection　spectroscopy.　The　selected　photocatalyst　(Bi-Ti-4%-600　degrees　C)　was　prepared　under　Bi/Ti　molar　ratio　of　4%　and　calcination　temperature　of　600　degrees　C.　Experimental　variables　during　photocatalytic　degradation　were　optimized　for　catalyst　dosage,　solution　pH,　initial　bisphenol　A　(BPA)　concentration,　coexisting　anions,　and　light　source　wavelength.　Under　optimal　conditions　of　1.0　g　L-1　catalyst,　pH　3,　30　mg　L-1　initial　BPA　concentration,　the　degradation　rate　of　BPA　could　reach　up　to　100%　at　150　min　under　visible　light　irradiation.　Compared　with　self-made　pure　TiO2　and　commercially　available　P-25,　Bi-Ti-4%-600　degrees　C　displayed　an　excellent　photocatalytic　activity　for　BPA　degradation.　Bi-Ti　photocatalyst　had　a　smaller　crystal　size,　larger　specific　surface　area,　stronger　visible　light　absorption　ability,　and　lower　band　gap　energy　than　self-made　pure　TiO2.　Four　intermediates　of　BPA　degradation　were　identified　and　a　possible　degradation　pathway　was　proposed.