Photocatalysis　and　membrane　technology　in　a　single　unit　is　an　ideal　strategy　for　the　development　of　wastewater　treatment　systems.　In　this　work,　novel　GO　(x　wt%)/TiO2-CA　hybrid　membranes　have　been　synthesized　via　a　facile　non-solvent　induced　phase　inversion　technique.　The　strategy　aimed　to　address　the　following　dilemmas:　(1)　Effective　utilization　of　visible　light　and　minimize　e(-)/h(+)　recombination;　(2)　Enhanced　separation　capability　and　superior　anti-fouling　and　self-cleaning　ability.　The　experimental　results　reveal　that　the　integration　of　nano-composite　(GO/TiO2)　boosts　the　membrane　properties　when　compared　to　pristine　CA　and　single　photocatalyst　employed　membrane　(GO-CA　and　TiO2-CA).　The　effect　of　GO　content　on　the　properties　of　the　photocatalytic　membrane　has　been　determined　by　utilizing　three　different　ratios　of　GO,　viz.　0.5　wt%,　1　wt%,　and　2　wt%　designated　as　NC(1)-CA,　NC(2)-CA,　and　NC(3)-CA,　respectively.　Amongst　them,　NC(3)-CA　membrane　showed　state-of-the-art　performance　with　an　elevated　photocatalytic　response　(four　times　higher　than　pristine　CA　membrane)　toward　methyl　orange.　Moreover,　the　water　flux　of　NC(3)-CA　membrane　is　613　L/m(2)h,　approximately　three　times　higher　than　bare　CA　membrane　(297　L/m(2)h),　while　keeping　the　MO　rejection　high　(96.6%).　Besides,　fouling　experiments　presented　the　lowest　total　and　fouling　resistance　ratios　and　a　higher　flux　recovery　ratio　(91.78%)　for　the　NC(3)-CA　membrane,　which　endows　the　membrane　with　higher　anti-fouling　and　self-cleaning　properties.　Thus,　NC(3)-CA　membrane　outperforms　the　other　as　synthesized　membranes　in　terms　of　separation　efficiency,　visible　light　photo-degradation　of　pollutant,　anti-fouling　and　self-cleaning　ability.　Therefore,　NC(3)-CA　membrane　is　considered　as　the　next　generation　membrane　for　exhibiting　great　potential　for　the　wastewater　treatment　applications.