论文标题
混合镁:相干信息处理的物理,电路和应用
Hybrid magnonics: physics, circuits and applications for coherent information processing
论文作者
论文摘要
混合动态系统最近对基本物理和设备应用都产生了兴趣,尤其是其相干信息处理的潜力。从这个角度来看,我们将重点关注基于木元的混合动力系统的最新快速发展,该系统试图将磁性激发与各种激发相结合,以在设备,电路和信息处理中进行变革性应用。他们有前途的潜力的关键是,少量是高度可调的激发,可以轻松地与各种动态媒体和平台一起设计。与许多不同的激发达到强耦合的能力使镁质良好地定位了研究固态相干动力学和利用独特功能的能力。此外,凭借其Gigahertz频率带宽以及易于制造和微型化,可以方便地集成到微波电路中,以模仿已应用于微波电子,光子学和量子信息的广泛设备概念。我们将讨论一些潜在的方向,用于推进镁混合系统,包括片上几何,新型相干磁通功能以及不同平台之间的相干转导。作为未来的前景,我们将讨论其在量子信息和宏伟逻辑中应用的Magnonic Hybrid Systems的机遇和挑战。
Hybrid dynamic systems have recently gained interests with respect to both fundamental physics and device applications, particularly with their potential for coherent information processing. In this perspective, we will focus on the recent rapid developments of magnon-based hybrid systems, which seek to combine magnonic excitations with diverse excitations for transformative applications in devices, circuits and information processing. Key to their promising potentials is that magnons are highly tunable excitations and can be easily engineered to couple with various dynamic media and platforms. The capability of reaching strong coupling with many different excitations has positioned magnons well for studying solid-state coherent dynamics and exploiting unique functionality. In addition, with their gigahertz frequency bandwidth and the ease of fabrication and miniaturization, magnonic devices and systems can be conveniently integrated into microwave circuits for mimicking a broad range of device concepts that have been applied in microwave electronics, photonics and quantum information. We will discuss a few potential directions for advancing magnon hybrid systems, including on-chip geometry, novel coherent magnonic functionality, and coherent transduction between different platforms. As future outlook, we will discuss the opportunities and challenges of magnonic hybrid systems for their applications in quantum information and magnonic logic.