Efficient design of 15:4 counter using a novel 5:3 counter for high-speed multiplication

IF 1.1 4区计算机科学 Q4 COMPUTER SCIENCE, HARDWARE & ARCHITECTURE

IET Computers and Digital Techniques Pub Date : 2020-12-09 DOI:10.1049/cdt2.12002

Hemanth Krishna L., Neeharika M., Vishvanath Janjirala, Sreehari Veeramachaneni, Noor Mahammad S

引用次数: 4

Abstract

This paper proposes an efficient approach to design high-speed, accurate multipliers. The proposed multiplier design uses the proposed efficient 15:4 counter for the partial product reduction stage. This proposed 15:4 counter is designed using a novel 5:3 counter. The proposed 5:3 counter uses input re-ordering circuitry at the input side. As a result, the number of output combinations can be reduced to 18 from 32. As a result, the circuit complexity reduces. The proposed 5:3 counter and 15:4 counter are on an average 28% and 19% improvement in the power delay product compared with the existing designs. The 16-bit multiplier designed using 5:3 and 15:4 counters is an average 22.5% improvement in power delay product compared with the existing designs.

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高效设计15:4计数器，采用新颖的5:3计数器实现高速乘法

本文提出了一种设计高速、精确乘法器的有效方法。建议的乘数设计使用建议的高效15:4计数器进行部分乘积缩减阶段。这个提议的15:4计数器是使用一个新颖的5:3计数器设计的。提议的5:3计数器在输入端使用输入重新排序电路。因此，输出组合的数量可以从32个减少到18个。因此，降低了电路的复杂度。所提出的5:3计数器和15:4计数器与现有设计相比，功率延迟产品平均提高28%和19%。采用5:3和15:4计数器设计的16位乘法器与现有设计相比，功率延迟产品平均提高22.5%。

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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来源期刊

IET Computers and Digital Techniques 工程技术-计算机：理论方法

CiteScore

3.50

自引率

0.00%

发文量

审稿时长

>12 weeks

期刊介绍： IET Computers & Digital Techniques publishes technical papers describing recent research and development work in all aspects of digital system-on-chip design and test of electronic and embedded systems, including the development of design automation tools (methodologies, algorithms and architectures). Papers based on the problems associated with the scaling down of CMOS technology are particularly welcome. It is aimed at researchers, engineers and educators in the fields of computer and digital systems design and test. The key subject areas of interest are: Design Methods and Tools: CAD/EDA tools, hardware description languages, high-level and architectural synthesis, hardware/software co-design, platform-based design, 3D stacking and circuit design, system on-chip architectures and IP cores, embedded systems, logic synthesis, low-power design and power optimisation. Simulation, Test and Validation: electrical and timing simulation, simulation based verification, hardware/software co-simulation and validation, mixed-domain technology modelling and simulation, post-silicon validation, power analysis and estimation, interconnect modelling and signal integrity analysis, hardware trust and security, design-for-testability, embedded core testing, system-on-chip testing, on-line testing, automatic test generation and delay testing, low-power testing, reliability, fault modelling and fault tolerance. Processor and System Architectures: many-core systems, general-purpose and application specific processors, computational arithmetic for DSP applications, arithmetic and logic units, cache memories, memory management, co-processors and accelerators, systems and networks on chip, embedded cores, platforms, multiprocessors, distributed systems, communication protocols and low-power issues. Configurable Computing: embedded cores, FPGAs, rapid prototyping, adaptive computing, evolvable and statically and dynamically reconfigurable and reprogrammable systems, reconfigurable hardware. Design for variability, power and aging: design methods for variability, power and aging aware design, memories, FPGAs, IP components, 3D stacking, energy harvesting. Case Studies: emerging applications, applications in industrial designs, and design frameworks.