纳米磁逻辑:场耦合计算设备的定向信号流演示

S. Breitkreutz, J. Kiermaier, X. Ju, G. Csaba, D. Schmitt-Landsiedel, M. Becherer
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引用次数: 33

摘要

在纳米磁逻辑(NML)中,计算操作由非易失性、场耦合的纳米磁体执行。为了在逻辑门之间的纳米磁线中进行信息传输,必须在场耦合器件中实现定向信号流。本文提出了用垂直磁化的NML实现导线中有向信息传播的解决方案。本文首次通过实验证明了场耦合纳米磁体和均匀时钟场的非互易信号流。采用聚焦离子束(FIB)光刻和离子束刻蚀制备了场耦合纳米磁体。研究了FIB局部辐照对纳米磁体开关特性的影响。通过对导线中三个耦合纳米磁体的测量来验证仿真结果。在纳米磁线内的实验证明了纳米磁体的非互反场耦合。
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Nanomagnetic Logic: Demonstration of directed signal flow for field-coupled computing devices
In Nanomagnetic Logic (NML), computing operations are performed by non-volatile, field-coupled nanomagnets. For information propagation in nanomagnetic wires between logic gates, directed signal flow has to be implemented in the field-coupled devices. In this paper we present the solution for directed information propagation in a wire realized in NML with perpendicular magnetization. For the first time, non-reciprocal signal flow is experimentally demonstrated for field-coupled nanomagnets and homogeneous clocking fields. Micromagnetic simulations are performed and field-coupled nanomagnets are fabricated by focused ion beam (FIB) lithography and ion beam etching. Partial irradiation with a FIB is investigated to tailor the switching behavior of the nanomagnets. Three coupled nano-magnets in a wire are measured to verify the simulation results. Non-reciprocal field-coupling of the nanomagnets is proven by experiments within a nanomagnetic wire.
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