Chirality,　as　one　of　the　ubiquitous　properties　in　nature,　has　aroused　striking　attention　in　the　fields　of　physics　and　materials　sciences.　For　tailoring　of　light　with　more　degree　of　freedom,　circular　dichroism　has　been　considered　as　the　auxiliary　dimension　to　improving　such　an　issue.　Inspired　by　the　Born-Kuhn　plasmonic　oscillation　model,　we　demonstrate　and　discuss　a　chiral　resonator　to　reveal　reverse　circular　dichroism　within　two　separate　frequency　bands　in　the　microwave　regime.　The　underlying　physical　mechanisms　of　bonding　and　anti-bounding　modes　are　analyzed　via　transmission/reflection　spectra　and　surface　current　distributions　for　different　chiral　enantiomers.　To　leverage　the　proposed　paradigm　to　the　application　levels,　especially　for　meta-holography,　we　conduct　the　numerical　simulation　and　experimental　demonstration　of　two　proofs　of　principles.　Based　on　the　Pancharatnam-Berry　phase/amplitude　modulation　and　complex-amplitude　manipulation,　respectively,　the　meta-holograms　with　independent　targets　of　reconstructing　images　in　full-space　and　reflected　regions　are　achieved.　Significantly,　our　paradigm　may　promise　further　applications　in　spin-controlled　meta-devices　for　image　processing,　information　encryption,　anti-counterfeiting,　remote　sensing,　and　radar　systems.　©　2022,　Science　China　Press　and　Springer-Verlag　GmbH　Germany,　part　of　Springer　Nature.