Double Edge-Triggered Tristate Flip-Flop Physical Unclonable Function for Secure IoT Ecosystem

Hemavathy Sriramulu, V. S. K. Bhaaskaran
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引用次数: 4

Abstract

The sequential circuit in the clock distribution consumes a substantial amount of power in a digital system. The digital circuitry in the security devices requires low power and energy with increased throughput. In this paper, the security of the IoT devices have been realized using Physical Unclonable Functions (PUF). The proposed Double Edge-Triggered Tristate Flip-Flop PUF (DETTFF PUF) demonstrates significantly enhanced PUF metrics and robustness. The reduced power and energy of the proposed architecture can make DETTFF PUF a preferable choice in the IoT ecosystem. Comparison against the conventional double edge-triggered flip-flops to validate the structure. The design is also compared with conventional double edge-triggered flip-flops to elucidate the significance of the proposed architecture.
安全物联网生态系统的双向触发三态触发器物理不可克隆功能
时钟分布中的顺序电路在数字系统中消耗大量的功率。安全器件中的数字电路要求低功耗和能量,同时提高吞吐量。本文采用物理不可克隆功能(Physical unclable Functions, PUF)来实现物联网设备的安全。提出的双边缘触发三态触发器PUF (DETTFF PUF)具有显著增强的PUF指标和鲁棒性。所提出的架构降低了功耗和能量,可以使DETTFF PUF成为物联网生态系统中的首选。与传统的双棱触发触发器进行比较,验证其结构。该设计还与传统的双面触发触发器进行了比较,以阐明所提出的架构的意义。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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