Adiabatic flip-flops and sequential circuit design using novel resettable adiabatic buffers

S. Maheshwari, V. A. Bartlett, I. Kale
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引用次数: 9

Abstract

We propose novel resettable adiabatic buffers for five adiabatic logic families namely; Efficient Adiabatic Charge Recovery Logic (EACRL), Improved Efficient Charge Recovery Logic (IECRL), Positive Feedback Adiabatic Logic (PFAL), Complementary Pass-transistor Adiabatic Logic (CPAL) and Clocked Adiabatic Logic (CAL). We present the design of resettable flip-flops using the proposed buffers. The proposed flip-flops alleviate the problem of increased energy and area consumption incurred by the existing mux-based resettable flip-flops. We then design the 3-bit up-down counters and extended our comparison beyond energy dissipation using the above five adiabatic logic families. PFAL based sequential circuit designs gives the best performance trade-offs in terms of complexity, energy, speed and area compared to the other adiabatic designs.
采用新型可复位绝热缓冲器的绝热触发器和顺序电路设计
我们为五个绝热逻辑族提出了新的可复位绝热缓冲器,即;高效绝热电荷恢复逻辑(EACRL),改进高效电荷恢复逻辑(IECRL),正反馈绝热逻辑(PFAL),互补通管绝热逻辑(CPAL)和时钟绝热逻辑(CAL)。我们利用所提出的缓冲器设计可复位触发器。所提出的触发器缓解了现有基于多路复用的可复位触发器所带来的能量和面积消耗增加的问题。然后,我们设计了3位上下计数器,并使用上述五种绝热逻辑族将我们的比较扩展到能量消耗之外。与其他绝热设计相比,基于PFAL的顺序电路设计在复杂性,能量,速度和面积方面提供了最佳的性能权衡。
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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