The　rapid　adoption　of　light　emitting　diodes　technology　stems　from　its　high　efficiency,　long　lifespan,　and　energy-saving　capabilities.　However,　achieving　high-quality　white　light　emitting　diodes,　particularly　through　the　integration　of　efficient　red　emitters,　remains　a　significant　challenge.　This　study　reports　the　synthesis　of　Ca2La(Ta,Mn)O-6　double　perovskite　red　emitters　via　high-temperature　solid-state　reactions.　The　material　exhibits　a　strong　red　emission　peak　at　691　nm,　attributed　to　Mn-4(+)　ions　at　symmetrical　[TaO6](7)(-)　octahedral　sites,　confirmed　by　g　=　2.008　in　electron　paramagnetic　resonance　spectroscopy.　The　UV　excitation　spectrum　(250-600　nm)　and　thermal　stability　were　analyzed,　showing　a　retained　optical　intensity　of　41%　at　423　K.　Additionally,　a　red　emitter　was　developed,　and　a　noncontact　LCC-S　wireless　power　transfer　driving　system　was　constructed.　The　system　demonstrated　adjustable　luminescence　under　varying　input　voltages　(4-7.3　V)　and　frequencies　(90-110　kHz),　highlighting　its　potential　for　dynamic　lighting　applications.　These　findings　suggest　Ca2La(Ta,Mn)O6　double　perovskite　as　a　promising　candidate　for　indoor　lighting　and　noncontact　circuit　systems.