论文标题
纳米力学谐振器逻辑的级联
Cascading of Nanomechanical Resonator Logic
论文作者
论文摘要
已经提出了纳米力学系统作为高辐射环境的替代计算平台,在该环境中,传统上半导体电子设备失败,并允许提高门的密度和能耗。尽管有许多纳米力学逻辑门的演示利用了非线性,但有用的纳米力学逻辑电路的发展很大程度上取决于级联多个逻辑门的能力。从理论上讲,在这里,我们证明了级联的纳米力学逻辑门,其中一个门的输出被送入另一个门的输入,这是一个复杂的问题,这是一个复杂的问题,这是由于集体系统的短暂动力学。这些瞬态行为可能导致不希望的位挡,这完全排除了级联。然后,我们证明,可以在计算之前仔细初始初始初始初始初始初始初始初始化该问题。我们通过两个级联的纳米力学NAND门的建模动力学说明了这些显着特征。
Nanomechanical systems have been proposed as an alternative computing platform for high radiation environments, where semiconductor electronics traditionally fail, as well as to allow improved gate densities and energy consumption. While there have been numerous demonstrations of individual nanomechanical logic gates leveraging the Duffing nonlinearity, the development of useful nanomechanical logic circuits depends strongly on the ability to cascade multiple logic gates. Here we show theoretically that cascading nanomechanical logic gates, where the output of one gate is fed into the input of another, is a complex problem due to the transient dynamics of the collective system. These transient behaviours can lead to undesired bit flips, which precludes cascading altogether. We then show that this issue can be circumvented by carefully initialising the system prior to computation. We illustrate these salient features through the modelled dynamics of two cascaded nanomechanical NAND gates.