Periodic Networked Imaging With Nanoscale Sensor Nodes via Two-Layered Time-Division Access

As the Internet of Things (IoT) has become a widespread phenomenon, promising sensor applications at the nanoscale have begun to emerge. One example is imaging via distributed massive nanoscale nodes (NSNs), which can be used to implement "invisible surveillance cameras" by, for example, p...

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Bibliographic Details
Published in:IEEE internet of things journal 2022-04, Vol.9 (8), p.6213-6223
Main Authors: Nishibori, Shoma, Murase, Tutomu, Tadokoro, Yukihiro
Format: Article
Language:English
Subjects:
Access control
Cameras
Clustering
Communication
Data collection
Data transfer
Data transfer (computers)
Headers
Image quality
Image reconstruction
imaging
Internet of Nano Things (IoNT)
Internet of Things
Media Access Protocol
Nanoscale devices
nanoscale sensor nodes
Nodes
Protocol
Protocols
time-division access (TDA)
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Summary:As the Internet of Things (IoT) has become a widespread phenomenon, promising sensor applications at the nanoscale have begun to emerge. One example is imaging via distributed massive nanoscale nodes (NSNs), which can be used to implement "invisible surveillance cameras" by, for example, painting liquids containing nanoscale sensors onto walls. This imaging method requires periodic data transfer from thousands of NSNs to a data collection node (DCN). An essential technique for handling such transfers is the media access control (MAC) protocol. However, existing protocols cannot support periodic transfer from numerous NSNs because of inefficient communication caused by a large amount of headers in the packets. In this article, we introduce an original MAC protocol and discuss its capability in terms of implementing imaging applications. The proposed protocol applies a time-division access (TDA) feature to reduce the amount of headers and a two-layered protocol to enable simultaneous transmission among nodes. Slot assignment is an essential function in TDA and requires communication among nodes. Unlike existing methods, our simple approach enables communication by exploiting the unique features of the focused application. The results of the numerical simulation reveal that the proposed MAC protocol allows for periodic imaging with more than three thousand nodes and produces high-quality images very close to those obtained using ideal communication. These results are achieved by employing an original design framework to determine appropriate key parameters, such as the number of clusters and frame rate.
ISSN:2327-4662
2327-4662
DOI:10.1109/JIOT.2021.3112711