The strong light–matter interaction in ZnO-embedded microcavities has received great attention in recent years,due to its ability to generate the robust bosonic quasiparticles,exciton-polaritons,at or above room temp...The strong light–matter interaction in ZnO-embedded microcavities has received great attention in recent years,due to its ability to generate the robust bosonic quasiparticles,exciton-polaritons,at or above room temperature.This review introduces the strong coupling effect in ZnO-based microcavities and describes the recent progress in this field.In addition,the report contains a systematic analysis of the room-temperature strong-coupling effects from relaxation to polariton lasing.The stable room temperature operation of polaritonic effects in a ZnO microcavity promises a wide range of practical applications in the future,such as ultra-low power consumption coherent light emitters in the ultraviolet region,polaritonic transport,and other fundamental of quantum optics in solid-state systems.展开更多
基金This work has been supported by the NSC in Taiwan under contract NSC 100-2628-E-009-013-MY3.
文摘The strong light–matter interaction in ZnO-embedded microcavities has received great attention in recent years,due to its ability to generate the robust bosonic quasiparticles,exciton-polaritons,at or above room temperature.This review introduces the strong coupling effect in ZnO-based microcavities and describes the recent progress in this field.In addition,the report contains a systematic analysis of the room-temperature strong-coupling effects from relaxation to polariton lasing.The stable room temperature operation of polaritonic effects in a ZnO microcavity promises a wide range of practical applications in the future,such as ultra-low power consumption coherent light emitters in the ultraviolet region,polaritonic transport,and other fundamental of quantum optics in solid-state systems.
