Cargando…

Environment-Monitoring IoT Devices Powered by a TEG Which Converts Thermal Flux between Air and Near-Surface Soil into Electrical Energy

Energy harvesting has an essential role in the development of reliable devices for environmental wireless sensor networks (EWSN) in the Internet of Things (IoT), without considering the need to replace discharged batteries. Thermoelectric energy is a renewable energy source that can be exploited in...

Descripción completa

Detalles Bibliográficos
Autores principales: Paterova, Tereza, Prauzek, Michal, Konecny, Jaromir, Ozana, Stepan, Zmij, Petr, Stankus, Martin, Weise, Dieter, Pierer, Alexander
Formato: Online Artículo Texto
Lenguaje:English
Publicado: MDPI 2021
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC8662441/
https://www.ncbi.nlm.nih.gov/pubmed/34884107
http://dx.doi.org/10.3390/s21238098
_version_ 1784613437279567872
author Paterova, Tereza
Prauzek, Michal
Konecny, Jaromir
Ozana, Stepan
Zmij, Petr
Stankus, Martin
Weise, Dieter
Pierer, Alexander
author_facet Paterova, Tereza
Prauzek, Michal
Konecny, Jaromir
Ozana, Stepan
Zmij, Petr
Stankus, Martin
Weise, Dieter
Pierer, Alexander
author_sort Paterova, Tereza
collection PubMed
description Energy harvesting has an essential role in the development of reliable devices for environmental wireless sensor networks (EWSN) in the Internet of Things (IoT), without considering the need to replace discharged batteries. Thermoelectric energy is a renewable energy source that can be exploited in order to efficiently charge a battery. The paper presents a simulation of an environment monitoring device powered by a thermoelectric generator (TEG) that harvests energy from the temperature difference between air and soil. The simulation represents a mathematical description of an EWSN, which consists of a sensor model powered by a DC/DC boost converter via a TEG and a load, which simulates data transmission, a control algorithm and data collection. The results section provides a detailed description of the harvested energy parameters and properties and their possibilities for use. The harvested energy allows supplying the load with an average power of 129.04 [Formula: see text] W and maximum power of 752.27 [Formula: see text] W. The first part of the results section examines the process of temperature differences and the daily amount of harvested energy. The second part of the results section provides a comprehensive analysis of various settings for the EWSN device’s operational period and sleep consumption. The study investigates the device’s number of operational cycles, quantity of energy used, discharge time, failures and overheads.
format Online
Article
Text
id pubmed-8662441
institution National Center for Biotechnology Information
language English
publishDate 2021
publisher MDPI
record_format MEDLINE/PubMed
spelling pubmed-86624412021-12-11 Environment-Monitoring IoT Devices Powered by a TEG Which Converts Thermal Flux between Air and Near-Surface Soil into Electrical Energy Paterova, Tereza Prauzek, Michal Konecny, Jaromir Ozana, Stepan Zmij, Petr Stankus, Martin Weise, Dieter Pierer, Alexander Sensors (Basel) Article Energy harvesting has an essential role in the development of reliable devices for environmental wireless sensor networks (EWSN) in the Internet of Things (IoT), without considering the need to replace discharged batteries. Thermoelectric energy is a renewable energy source that can be exploited in order to efficiently charge a battery. The paper presents a simulation of an environment monitoring device powered by a thermoelectric generator (TEG) that harvests energy from the temperature difference between air and soil. The simulation represents a mathematical description of an EWSN, which consists of a sensor model powered by a DC/DC boost converter via a TEG and a load, which simulates data transmission, a control algorithm and data collection. The results section provides a detailed description of the harvested energy parameters and properties and their possibilities for use. The harvested energy allows supplying the load with an average power of 129.04 [Formula: see text] W and maximum power of 752.27 [Formula: see text] W. The first part of the results section examines the process of temperature differences and the daily amount of harvested energy. The second part of the results section provides a comprehensive analysis of various settings for the EWSN device’s operational period and sleep consumption. The study investigates the device’s number of operational cycles, quantity of energy used, discharge time, failures and overheads. MDPI 2021-12-03 /pmc/articles/PMC8662441/ /pubmed/34884107 http://dx.doi.org/10.3390/s21238098 Text en © 2021 by the authors. https://creativecommons.org/licenses/by/4.0/Licensee MDPI, Basel, Switzerland. This article is an open access article distributed under the terms and conditions of the Creative Commons Attribution (CC BY) license (https://creativecommons.org/licenses/by/4.0/).
spellingShingle Article
Paterova, Tereza
Prauzek, Michal
Konecny, Jaromir
Ozana, Stepan
Zmij, Petr
Stankus, Martin
Weise, Dieter
Pierer, Alexander
Environment-Monitoring IoT Devices Powered by a TEG Which Converts Thermal Flux between Air and Near-Surface Soil into Electrical Energy
title Environment-Monitoring IoT Devices Powered by a TEG Which Converts Thermal Flux between Air and Near-Surface Soil into Electrical Energy
title_full Environment-Monitoring IoT Devices Powered by a TEG Which Converts Thermal Flux between Air and Near-Surface Soil into Electrical Energy
title_fullStr Environment-Monitoring IoT Devices Powered by a TEG Which Converts Thermal Flux between Air and Near-Surface Soil into Electrical Energy
title_full_unstemmed Environment-Monitoring IoT Devices Powered by a TEG Which Converts Thermal Flux between Air and Near-Surface Soil into Electrical Energy
title_short Environment-Monitoring IoT Devices Powered by a TEG Which Converts Thermal Flux between Air and Near-Surface Soil into Electrical Energy
title_sort environment-monitoring iot devices powered by a teg which converts thermal flux between air and near-surface soil into electrical energy
topic Article
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC8662441/
https://www.ncbi.nlm.nih.gov/pubmed/34884107
http://dx.doi.org/10.3390/s21238098
work_keys_str_mv AT paterovatereza environmentmonitoringiotdevicespoweredbyategwhichconvertsthermalfluxbetweenairandnearsurfacesoilintoelectricalenergy
AT prauzekmichal environmentmonitoringiotdevicespoweredbyategwhichconvertsthermalfluxbetweenairandnearsurfacesoilintoelectricalenergy
AT konecnyjaromir environmentmonitoringiotdevicespoweredbyategwhichconvertsthermalfluxbetweenairandnearsurfacesoilintoelectricalenergy
AT ozanastepan environmentmonitoringiotdevicespoweredbyategwhichconvertsthermalfluxbetweenairandnearsurfacesoilintoelectricalenergy
AT zmijpetr environmentmonitoringiotdevicespoweredbyategwhichconvertsthermalfluxbetweenairandnearsurfacesoilintoelectricalenergy
AT stankusmartin environmentmonitoringiotdevicespoweredbyategwhichconvertsthermalfluxbetweenairandnearsurfacesoilintoelectricalenergy
AT weisedieter environmentmonitoringiotdevicespoweredbyategwhichconvertsthermalfluxbetweenairandnearsurfacesoilintoelectricalenergy
AT piereralexander environmentmonitoringiotdevicespoweredbyategwhichconvertsthermalfluxbetweenairandnearsurfacesoilintoelectricalenergy