Perovskite　light-emitting　devices,　owing　to　their　high　efficiency,　solution　processability,　and　tunable　emission　spectra,　have　emerged　as　a　transformative　platform　in　next-generation　display　technologies.　While　most　existing　perovskite　light-emitting　devices　primarily　employ　direct　current　(DC)　driving,　alternating　current　(AC)-driven　perovskite　devices　have　garnered　increasing　research　attention.　Studies　demonstrate　AC　driving　has　remarkable　advantages　in　reducing　operational　voltage,　enhancing　luminous　efficiency,　improving　device　stability,　and　suppressing　perovskite　ion　migration.　Its　low-voltage/low-frequency　compatibility　is　expected　to　seamless　integration　with　household　power　systems　and　wearable　electronics.　This　review　analyzes　the　carrier　transport　properties　of　perovskite　materials　under　AC　electric　fields.　Accordingly,　the　operating　principles　and　processes　of　AC-driven　perovskite　light-emitting　devices　with　three　different　structures　are　demonstrated.　Moreover,　AC　driving　strategies　in　perovskite　light-emitting　diodes,　light-emitting　transistors,　and　flexible　displays　are　reviewed,　with　a　focus　on　their　performance　implications.　With　this　review,　the　aim　is　to　deepen　the　understanding　of　the　critical　role　of　AC　driving　of　perovskite　light-emitting　devices　in　overcoming　the　inherent　limitations　of　DC　operation.　It　is　expected　to　outline　the　future　trajectory　of　smart　displays　and　flexible　electronics　based　on　AC-driven　perovskite　light-emitting　devices　to　accelerate　their　transition　from　laboratory　prototypes　to　commercial　applications.