基于MTJ器件三重读写数据流复用的节能真随机数发生器设计

A. Tamakoshi, N. Onizawa, Hitoshi Yamagata, Hiroyuki Fujita, T. Hanyu
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摘要

本文介绍了一种采用三端磁隧道结(3T-MTJ)器件的三重读写数据流复用组合cmos电路的节能真随机数发生器(TRNG)。当使用多个3T-MTJ设备并依次激活高速随机数生成时,必须保证从3T-MTJ设备发出的正确随机数比特流有足够的时间裕度。该算法将随机数比特流进行三次复制,并将三个独立的随机数比特流叠加在一条输出线上,从而实现了高速节能的随机数生成。我们采用65纳米cmos /3T-MTJ设计技术,并通过3T-MTJ模型的HSPICE仿真验证了其正确性。生成的随机数质量通过NIST测试验证。因此,每比特的能量消耗为0.5 pJ / bit,约为传统cmos TRNG的1/10。
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Design of an Energy-Efficient True Random Number Generator Based on Triple Read-Write Data-Stream Multiplexing of MTJ Devices
In this paper, we introduce an energy-efficient true random number generator (TRNG) using triple read-write data-stream multiplexing combined CMOS-circuits with three-terminal magnetic tunnel junction (3T-MTJ) devices. When multiple 3T-MTJ devices are used and sequentially activated for high-speed random-number generation, the sufficient timing margin must be guaranteed for correct random-number bit stream from the 3T-MTJ devices. In the proposed TRNG, random-number bit streams are triplicated and three individual random-number bit streams are superposed among them on a single output line, which achieves high-speed and energy-efficient random number generation. We use 65 nm-CMOS/3T-MTJ design technologies, and confirm its correct operation verification by HSPICE simulation with a 3T-MTJ model. The quality of random numbers generated is verified by NIST test. As a result, the energy consumption per bit is 0.5 pJ / bit, which is about 1/10 of a conventional CMOS-based TRNG.
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