VLSI Architecture Design of FM0/Manchester Codec With 100% Hardware Utilization Rate for DSRC-Based Sensor Nodes in ITS Applications PROJECT TITLE :VLSI Architecture Design of FM0/Manchester Codec With 100% Hardware Utilization Rate for DSRC-Based Sensor Nodes in ITS ApplicationsABSTRACT:Dedicated short-vary Communication (DSRC) plays an vital role in sensor NetWorking for intelligent transportation system applications. How to achieve a better hardware potency becomes an engaging issue to design every vital building bock in sensor node. DSRC standards usually adopt either FM0 code or Manchester code as a coding technique to reinforce signal reliability. During this paper, a totally reused VLSI architecture of FM0/Manchester codec with a hardware utilization rate (HUR) of a hundred% is proposed for DSRC-primarily based sensor node. It's based mostly on the half-cycle processing model (HCPM). The HCPM includes three core techniques: one) half-cycle logic partition; two) reused-based mostly retiming; and three) Boolean function reshaping. The HCPM can improve the HUR of FM0/Manchester codec from twenty seven.thirty three% to 100percent with the reduction of the transistor count from 86 to sixty six. A a hundredpercent HUR suggests that every transistor is activated; thus, a more power is consumed. With a design tradeoff between HUR and power consumption, this paper still presents a higher energy efficiency. This paper is realized in TSMC zero.18-μm 1P6M CMOS technology. The silicon space of core circuit is thirty three × a hundred and twenty μm2. The experiment results demonstrate that this paper presents a competitive performance with a hundredpercent HUR compared with the present works. With this paper, DSRC-based mostly sensor nodes will gift a one hundredpercent HUR FM0/Manchester codec, fully supporting DSRC standards of Europe, USA, and Japan. Did you like this research project? To get this research project Guidelines, Training and Code... Click Here facebook twitter google+ linkedin stumble pinterest On the Area and Energy Scalability of Wireless Network-on-Chip: A Model-Based Benchmarked Design Space Exploration TimeNotes: A Study on Effective Chart Visualization and Interaction Techniques for Time-Series Data