Article detail · 2021
A new coplanar design of a 4‐bit ripple carry adder based on quantum‐dot cellular automata technology
Journal
IET Circuits, Devices & SystemsISSN 1751-858X
The ISSN points to another catalog journal; the name is from the YÖKSİS record.
- Year
- 2021
- Type
- article
Data source split
- YÖKSİS YÖKSİS article record
- YÖKSİS venue IET Circuits, Devices & Systems
- Catalog match (ISSN) IET Circuits, Devices and Systems
- OpenAlex OpenAlex enrichment (abstract, citations, topics)
Abstract
OpenAlex · English
Abstract Quantum‐dot cellular automata (QCA) is one of the best methods to implement digital circuits at nanoscale. It has excellent potential with high density, fast switching speed, and low energy consumption. Researchers have emphasized reducing the number of gates, the delay, and the cell count in QCA technology. In addition, a ripple carry adder (RCA) is a circuit in which each full adder's carry‐out is the connection for the next full adder's carry‐in. These types of adders are quite simple and easily expandable to any desired size. However, they are relatively slow because carries may broadcast across the entire adder. Therefore, an RCA design on a nanoscale QCA is proposed to diminish the cell number, improve complexity, and decrease latency. The QCADesigner simulation tool is used to verify the correctness of the suggested circuit. The comparison results for the design indicate an approximately 49.14% improvement in cell number and 14.29% advantage in area for the state‐of‐the‐art 4‐bit RCA designs with QCA technology. In addition, the obtained results specify the effectiveness of the offered design.
Topics
Citations
OpenAlex cited_by_count. Not a WoS or Scopus citation count; those sources have no separate column here.
29 citations
OpenAlex cited_by_count (cache / database)
4 publications in the local catalog that cite this work (OpenAlex reference match; not the full global list).
- Designing a multi‐layer full‐adder using a new three‐input majority gate based on quantum computing 2021
- Design and Analysis of Fault-Tolerant 1:2 Demultiplexer Using Quantum-Dot Cellular Automata Nano-Technology 2021
- RETRACTED ARTICLE: A nano-scale design of a multiply-accumulate unit for digital signal processing based on quantum computing 2023
- A nano-scale design of a multiply-accumulate unit for digital signal processing based on quantum computing 2023