The　present　study　investigates　a　large　power　thermal　bubble　micro-ejector　with　induction　heating　device.　The　traditional　thermal-bubble　ejectors　adopted　resistors　as　the　heating　resources,　it　can　only　work　with　lower　power　and　convey　liquid　with　lower　flow　rate.　Induction　heating　devices　are　adopted　to　replace　the　resistor　for　heating　liquid　in　this　paper.　With　this　heating　method,　there　is　no　physical　contact　between　the　heating　core　and　the　external　power　supply　circuit.　The　liquid　in　the　chamber　of　micro-ejector　is　heated　by　the　induction　heating　device　and　changes　from　liquid　phase　to　gas　phase,　generating　vapor　bubbles　in　the　micro　chamber　of　the　micro　ejector.　The　bubble　expands　rapidly　and　ejects　droplets　through　the　nozzle.　The　prototype　of　the　micro-ejector　is　fabricated　and　experiments　are　carried　out.　Continuous　droplets　are　ejected　out　from　the　nozzle　as　the　applied　AC　current　is　0.6-0.65　A　with　the　power　frequency　of　100　kHz.　The　total　volume　of　the　continuous　droplets　is　ranging　from　18.84　to　49.87　nL,　and　the　corresponding　flow　rate　is　about　0.52-1.36　mu　L/min.　Furthermore,　this　new　micro-ejector　can　be　adopted　in　conveying　of　micro-scale　liquid,　the　injection　of　trace　drugs　and　the　3D　printing.