Low power high speed D flip flop design using improved SVL technique

G. Sushma, V. Ramesh
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引用次数: 5

Abstract

D flip flops are extensively used in analog, digital and mixed signal systems. D flip flops are first choice to realize different counters, shift registers and other circuits. One major consequence of scaling of CMOS technology is leakage power. To decrease power consumption and to improve life time of battery, the voltage supplied to the given circuit during standby mode should be reduced. This paper proposes a new D flip flop design which employs improved SVL technique in order to reduce power consumption due to leakage currents in standby mode. Also the proposed design uses less number of clocked transistors, thus reduces the dynamic power consumption as well as delay compared to existing design. Proposed design achieves 60.54% reduction in power delay product in comparison with existing D flip flop design. Both existing design and proposed design are simulated using Tanner T spice tool at 45nm technology.
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基于改进SVL技术的低功耗高速D触发器设计
D触发器广泛应用于模拟、数字和混合信号系统中。D触发器是实现不同计数器、移位寄存器和其他电路的首选。CMOS技术规模化的一个主要后果是漏功率。为了降低功耗和延长电池的使用寿命,应降低待机模式下给定电路的电压。本文提出了一种采用改进SVL技术的新型D触发器设计,以降低待机时漏电流造成的功耗。此外,与现有设计相比,所提出的设计使用的时钟晶体管数量较少,从而降低了动态功耗和延迟。与现有的D触发器设计相比,本设计实现了60.54%的功率延迟产品降低。现有设计和提出的设计都使用Tanner T spice工具在45纳米技术下进行了模拟。
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