The　parallel　three-level　neutral-point　clamp　(3L-NPC)　inverters　are　widely　solicited　today　to　satisfy　the　higher　power　demand　by　using　low-rated　switching　devices　in　industrial　applications　such　as　renewable　power　generation.　With　the　3L-NPC　in　parallel,　the　zero-sequence　circulating　current　(ZSCC)　occurs　in　the　closed　circuit　and　decreases　the　performances　of　the　current　response　if　the　two　3L-NPCs　share　the　same　dc　bus　with　no　galvanic　isolation　at　the　ac　side.　From　the　analysis　of　the　ZSCC　equivalent　circuit,　the　virtual　voltage　vectors　are　proposed　and　exploited　by　the　finite　control　set　model　predictive　control　(FCS-MPC)　for　mitigating　the　ZSCC　and　improving　the　current　accuracy.　In　order　to　keep　the　neutral-point　balance　and　reduce　the　switching　loss,　the　differential　capacitor　voltage　and　the　average　switching　frequency　are　considered　in　the　proposed　MPC.　An　experimental　platform　based　on　the　Simulink-Real-Time　system　is　presented　for　further　verification　of　the　effectiveness　of　the　proposed　method.　The　simulation　and　the　experimental　results　obtained　under　the　proposed　strategy　show　that　the　ZSCC　is　reduced　to　near　zero,　and　the　current　response　provided　has　lower　THD.