Revisiting the Utility of Transmission Gate and Passtransistor Logic Styles in CMOS VLSI Design

S. Fairooz, P. Thanapal, P. Ganesan, M. S. Prakash Balaji, V. Elamaran
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引用次数: 1

Abstract

Modern microelectronic circuits are progressing from nanoseconds per instruction to picoseconds per instruction. The miniaturization of transistors, interconnects, and power supplies in integrated circuits have sparked this revolution. Because feature sizes are constantly shrinking, manufacturing process tools have less confidence in controlling design specifications (parameters). To minimize the number of transistors in a particular logic gate, the passtransitor logic can be used at the cost of weak logic output voltages. Transmission gate (TG) logic overcomes the weakness of the passtransistor logic at the expense of an extra transistor for each transmission gate. This study explores the implementation of a two-input OR gate (transmission gate logic), a two-input AND gate (passtransistor logic), and a two-input XOR gate (both) with the simulation results of area, power, and delay metrics.
再论传输门和过路晶体管逻辑样式在CMOS VLSI设计中的应用
现代微电子电路正从每条指令的纳秒级发展到每条指令的皮秒级。集成电路中晶体管、互连和电源的小型化引发了这场革命。由于特征尺寸不断缩小,制造过程工具在控制设计规范(参数)方面缺乏信心。为了最小化特定逻辑门中的晶体管数量,晶体管逻辑可以以弱逻辑输出电压为代价使用。传输门(TG)逻辑克服了晶体管逻辑的缺点,但代价是每个传输门都需要一个额外的晶体管。本研究探讨了双输入或门(传输门逻辑)、双输入与门(通管逻辑)和双输入异或门(两者)的实现,并给出了面积、功率和延迟指标的仿真结果。
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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