微波谐振腔内的磁悬浮：特性、挑战和可能性
Magnetic levitation within a microwave cavity: characterization, challenges, and possibilities
摘要：
超导磁悬浮的低能量损耗使其在物理学中具有令人兴奋的应用。最近，超导磁悬浮已被实现为氮空位中心中单个自旋量子比特的新型机械转导[1]。此外，人们还提出了用Meissner来研究改进的引力波探测[2]。微波腔中的迈斯纳悬浮可以为新型腔光学机械系统、诸如transmon和磁振子的量子对象的读出、引力波检测和磁力学开辟道路[3]。这项工作的特点是微波内的磁悬浮。它还讨论了可能性，挑战，和腔体磁体系统的室温和低温实验。
英文摘要：
The low energy losses in the superconducting magnetic levitation make it attractive for exciting applications in physics. Recently, superconducting magnetic levitation has been realized as novel mechanical transduction for the individual spin qubit in the nitrogen-vacancy center [1]. Furthermore, the Meissner has been proposed for the study of modified gravitational wave detection [2]. Meissner levitation within the microwave cavity could open avenues for the novel cavity optomechanical system, readout for quantum object such as the transmon, and magnon, gravitational wave detection, and magnetomechanics [3]. This work characterized magnetic levitation within a microwave. It also discusses possibilities, challenges, and room temperature and cryogenic experiments of the cavity-magnet system.
机构、总结、中文摘要均由AI分析而来，可能存在错误，请以论文正文为准。
