LAPSE:2023.26395
Published Article

LAPSE:2023.26395
Multiple-Embedded-System Optimization Layout for Electromagnetic Wave Power Density in Complex Environments
April 3, 2023
Abstract
Many embedded systems are implemented for healthcare, and smart homes and spaces. These devices are generally designed for elderly care, for monitoring, surveillance, and collection information. As embedded systems are ubiquitous and pervasive in a smart home, office, or space, different layout affects not only reduce the implementation cost but also the power density of electromagnetic waves. This study aimed to develop a multiple-embedded-system optimization layout to consume less electromagnetic wave power density and gain better communication strength. For smart offices, we analyzed the layout topology of n-shaped and n-shaped with door layout categories. On the basis of the location of each embedded system in a communication center via an n-shaped layout, we investigated the electromagnetic wave effect to the local, direct, and semidirect effects. Indirect and subindirect effects were also studied in the n-shaped layout with a door. In addition, we derived a set of formulas from the scope for the diverse effects to help users to quickly identify the scope of each effect. To verify the multiple-embedded-system optimization layout, 16 cooperating embedded systems with four test cases in a smart office were used to evaluate the diverse effects of electromagnetic wave power density and communication strength. Experiment results showed that the optimization layout consumed 3950 × 10−6 W/m2 electromagnetic wave power density.
Many embedded systems are implemented for healthcare, and smart homes and spaces. These devices are generally designed for elderly care, for monitoring, surveillance, and collection information. As embedded systems are ubiquitous and pervasive in a smart home, office, or space, different layout affects not only reduce the implementation cost but also the power density of electromagnetic waves. This study aimed to develop a multiple-embedded-system optimization layout to consume less electromagnetic wave power density and gain better communication strength. For smart offices, we analyzed the layout topology of n-shaped and n-shaped with door layout categories. On the basis of the location of each embedded system in a communication center via an n-shaped layout, we investigated the electromagnetic wave effect to the local, direct, and semidirect effects. Indirect and subindirect effects were also studied in the n-shaped layout with a door. In addition, we derived a set of formulas from the scope for the diverse effects to help users to quickly identify the scope of each effect. To verify the multiple-embedded-system optimization layout, 16 cooperating embedded systems with four test cases in a smart office were used to evaluate the diverse effects of electromagnetic wave power density and communication strength. Experiment results showed that the optimization layout consumed 3950 × 10−6 W/m2 electromagnetic wave power density.
Record ID
Keywords
electromagnetic wave power density, embedded system, optimization layout
Subject
Suggested Citation
Fan YH. Multiple-Embedded-System Optimization Layout for Electromagnetic Wave Power Density in Complex Environments. (2023). LAPSE:2023.26395
Author Affiliations
Fan YH: Department of Computer Science and Information Engineering, National Taitung University, Taitung 95092, Taiwan [ORCID]
Journal Name
Energies
Volume
13
Issue
18
Article Number
E4758
Year
2020
Publication Date
2020-09-12
ISSN
1996-1073
Version Comments
Original Submission
Other Meta
PII: en13184758, Publication Type: Journal Article
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LAPSE:2023.26395
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https://doi.org/10.3390/en13184758
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Apr 3, 2023
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