An Enhanced and Low Power Communication System using ETI
Authors:P.V.S.N.SATHEESH KUMAR, B.MALLESWARI
Authors:P.V.S.N.SATHEESH KUMAR, B.MALLESWARI
Abstract: Here, in this project; embedded transition inversion (ETI) is proposed to reduce bit transitions in Serializing parallel
buses. Implies power can be reduced further. This project proposes an embedded transition inversion (ETI) coding scheme that
uses the phase difference between the clock and data in the transmitted serial data to tackle the problem of the extra indication
bit. The technique is implemented in an optimized fashion using pipelining so that it can be used in practical systems with only
a slight compromise in performance. This is achieved by calculating the decision as the data is being loaded on to the buffer and
doing the encoding on the fly. This is one aspect which is lacking in most existing algorithms as they are not amenable to low
delay implementation. As an enhancement B2I block is eliminated by using master slave flip-flop. Bit2 inversion output is
yielded without using B2I block. Furthermore area can be reduced with this enhancement.
Keywords: ETI, TIC, Phase Encoding, Tackle, B2I, Buffer, Serialized Buffer, Pipelining, and Optimization.
INTRODUCTION
Low power design, in a system perspective, happens at
all levels of the digital electronic system stack. It is being
done from the lowermost device level design to the topmost
software design. And there are the intermediate levels where
a lot of effort is being expended to make systems run at low
power, keeping the compromise in performance to be
minimum. The increasing density of the integrated circuits
as postulated by Moore’s law makes it even more important
to have low power systems since the power supply for such
a dense integrated circuit may not keep track in size with the
miniaturization of the electronic components. Hence
research is being made at all levels of a system stack. A
system can consist of multiple components. They can be
broadly classified and a communication framework
designed work.
No comments:
Post a Comment