An Efficient Design of Multiplier for Using in Nano-Scale Iot Systems Using Atomic Silicon
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Date
2023
Authors
Ahmadpour, Seyed-Sajad
Heidari, Arash
Navimpour, Nima Jafari
Asadi, Mohammad-Ali
Yalcin, Senay
Journal Title
Journal ISSN
Volume Title
Publisher
IEEE-Inst Electrical Electronics Engineers Inc
Open Access Color
Green Open Access
No
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Publicly Funded
No
Abstract
Because of recent technological developments, such as Internet of Things (IoT) devices, power consumption has become a major issue. Atomic silicon quantum dot (ASiQD) is one of the most impressive technologies for developing low-power processing circuits, which are critical for efficient transmission and power management in micro IoT devices. On the other hand, multipliers are essential computational circuits used in a wide range of digital circuits. Therefore, the multiplier design with a low occupied area and low energy consumption is the most critical expected goal in designing any micro IoT circuits. This article introduces a low-power atomic silicon-based multiplier circuit for effective power management in the micro IoT. Based on this design, a $4\times 4$ -bit multiplier array with low power consumption and size is presented. The suggested circuit is also designed and validated using the SiQAD simulation tool. The proposed ASiQD-based circuit significantly reduces energy consumption and area consumed in the micro IoT compared to most recent designs.
Description
Keywords
Index Terms-Atomic silicon quantum dot (ASiQD), dangling bond (DB), Internet of Things (IoT), Quantum-Dot, multiplier, quantum-based IoT, Quantum-Dot, silicon quantum designer (SiQAD), silicon quantum designer (SiQAD), dangling bond (DB), multiplier, Index Terms-Atomic silicon quantum dot (ASiQD), Quantum-Dot, quantum-based IoT, Internet of Things (IoT)
Fields of Science
0202 electrical engineering, electronic engineering, information engineering, 02 engineering and technology, 0210 nano-technology
Citation
WoS Q
Q1
Scopus Q
Q1

OpenCitations Citation Count
32
Source
Ieee Internet of Things Journal
Volume
10
Issue
16
Start Page
14908
End Page
14909
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Citations
CrossRef : 16
Scopus : 42
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Mendeley Readers : 11
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