R. Saranya’s research while affiliated with Coimbatore Institute of Engineering and Technology and other places

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Publications (2)


Area-Delay-Power-Efficient GDI Architecture Select Adder to Carry
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  • Full-text available

February 2025

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E3S Web of Conferences

R. Saranya

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P. Logamurthy

The signal processing system is extremely popular in this day and age. All of the primary circuits in the digital signal processing system are built around the adder, which is the fundamental building block. Today’s needs for lowering the delay, space, and power consumption of adder circuits boost the overall efficiency of the system, propelling it to the next stage of technological development. Despite the fact that the Carry Select Adder (CSLA) takes up more space, it is being utilised in place of the ripple carry adder in order to reduce propagation delays. In other models, a Carry Select Adder based on a Binary to Excess-I Converter (BEC) was utilised, which required fewer logic resources than a standard CSLA and was hence more energy efficient. The fact that these CSLAs reject one sum after the calculation, however, means that they are not more efficient. As a result, the delay was not significantly decreased. It is necessary to apply the reduced logic CSLA in order to overcome this challenge. However, by employing the Gate Diffusion Input (GDI) Technique, it is possible to achieve a lower delay than the previously suggested reduced logic CSLA. The suggested technique consumes less power and has a shorter propagation latency than existing techniques. In addition, the number of transistors necessary for the circuit was reduced by implementing this GDI-based CSLA. It is possible to create an efficient adder using this technique, as seen above.

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Figure. 1 QCA Cell (a) 900 type (b) 450 type Due to electrostatic interactions between the adjacent cells, information moves from one terminal point of the wire to the other terminal point of the horizontal row of QCA cells.The wires in Figures 2 (a) and (b) were built using two different types of cells, conventional cells and rotating cells. The binary signal's propagation in a 45-degree wire alternates between the two polarizations. Finally, as illustrated in Figure 2.Only when the QCA wires have various orientations does this property hold true. By simply shifting the location of the cells in the pattern, logic circuits can be implemented thanks to the columbic interaction between adjacent cells is called QCA inverter. The inverter seen in Figure 3(a), which is typically
Figure. 4 Crossover (a) Coplanar (b) Multilayer
Figure. 6 Proposed XOR Gate in [20] (a) Two Input (b) Three Input
Performance matrices for the existing designs in [15]
Performance matrices for the proposed design

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A Novel Area Efficient TIEO based Reversible Logic Gates in QCA Paradigm