混合应变电子学和自旋电子学:一种用于逻辑和存储器的超节能范例

Supriyo Bandyopadhyay, J. Atulasimha
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引用次数: 1

摘要

逻辑位和存储位转换过程中过多的能量耗散是摩尔定律预测的电子器件持续缩小的主要障碍。纳米磁逻辑和存储开关天生比电子开关更节能,因为自旋的相关开关不会在电荷通过进出晶体管通道而“切换”时发生。此外,磁铁不像晶体管那样“泄漏”。这使得纳米磁开关的能量耗散比电子开关低得多。然而,这种优势在纳米磁逻辑(NML)范例中通常被浪费,因为非常低效的磁开关方案导致开关电路中的巨大耗散。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Hybrid straintronics and spintronics: An ultra energy-efficient paradigm for logic and memory
Excessive energy dissipation during switching of logic and memory bits is the primary impediment to continued downscaling of electronic devices predicted by Moore's law. Nanomagnetic logic and memory switches are innately more energy-efficient than electronic switches because of correlated switching of spins that does not happen when charges are “switched” by moving them into and out of a transistor's channel. Furthermore, magnets do not “leak” unlike transistors. This results in much lower energy dissipation in a nanomagnetic switch compared to an electronic switch. However, this advantage is usually squandered in nanomagnetic logic (NML) paradigms because of very inefficient magnet switching schemes that result in mammoth dissipation in the switching circuit.
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