Ferroelectric topologically configurable multilevel logic unit

A. Razumnaya, Y. Tikhonov, V. Vinokur, I. Luk’yanchuk
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Abstract

Multilevel devices demonstrating switchable polarization enable us to efficiently realize neuromorphic functionalities including synaptic plasticity and neuronal activity. Here we propose using the ferroelectric logic unit comprising multiple nanodots disposed between two electrodes and coated by the dielectric material. We devise the integration of the ferroelectric logic unit, providing topologically configurable non-binary logic into a gate stack of the field-effect transistor as an analog-like device with resistive states. By controlling the charge of the gate, we demonstrate the various routes of the topological switchings between different polarization configurations in ferroelectric nanodots. Switching routes between different logic levels are characterized by hysteresis loops with multiple branches realizing specific interconnectivity regimes. The switching between different types of hysteresis loops is achieved by the variation of external fields and temperature. The devised ferroelectric multilevel devices provide a pathway toward the novel topologically-controlled implementation of discrete synaptic states in neuromorphic computing.
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铁电拓扑可配置的多层逻辑单元
显示可切换极化的多电平设备使我们能够有效地实现神经形态功能,包括突触可塑性和神经元活动。在这里,我们建议使用由多个纳米点组成的铁电逻辑单元,这些纳米点被放置在两个电极之间,并被介电材料包裹。我们设计了铁电逻辑单元的集成,将拓扑可配置的非二进制逻辑提供到场效应晶体管的门堆栈中,作为具有电阻状态的类似模拟的器件。通过控制栅极的电荷,我们展示了铁电纳米点在不同极化构型之间拓扑切换的各种途径。不同逻辑级别之间的切换路径以具有多个分支的滞回回路为特征,实现特定的互联机制。不同类型的磁滞回线之间的切换是通过外部场和温度的变化来实现的。所设计的铁电多能级器件为神经形态计算中离散突触状态的新颖拓扑控制实现提供了一条途径。
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