An Online Remote Verification System of Thermal Sources for Energy Harvesting Application

被引:8
|
作者
Camboim, Marcelo Miranda [1 ]
Oliveira, Vinicius Silva [1 ]
Villarim, Mariana Rodrigues [1 ]
Villarim, Andrea Willa Rodrigues [1 ]
Catunda, Sebastian Yuri Cavalcanti [2 ]
Baiocchi, Orlando R. [3 ]
de Souza, Cleonilson Protasio [1 ]
机构
[1] Univ Fed Paraiba, Dept Elect Engn, BR-58051900 Joao Pessoa, Paraiba, Brazil
[2] Univ Fed Rio Grande do Norte, Dept Comp Engn & Automat, BR-59078970 Natal, RN, Brazil
[3] Univ Washington Tacoma, Sch Engn & Technol, Tacoma, WA 98402 USA
关键词
Temperature sensors; Wireless sensor networks; Temperature measurement; Emulation; Energy harvesting; Remote sensing; Vegetation; Internet of Things; remote sensing; thermoelectricity; SOLAR;
D O I
10.1109/TIM.2020.2986105
中图分类号
TM [电工技术]; TN [电子技术、通信技术];
学科分类号
0808 ; 0809 ;
摘要
Several thermoelectric energy harvesting applications have been introduced recently, showing an increasing interest in thermoelectric energy, mainly using Thermoelectric generators (TEGs) that convert heat directly into electrical energy. Some examples of thermoelectric energy harvesting applications are in the human body, wearable devices, and aircraft. However, several studies and development steps are previously needed to build a complete thermal harvester to prove whether it can generate a useful amount of energy. In this context, a way to early verify the potential of a possible thermal source before building the thermal harvester is needed to save either time or funding resources. In this article, a complete system to verify the capabilities of thermal sources before building the final thermal harvester is presented. The proposed system runs a procedure of simultaneous sampling and emulating thermal gradients, that is, while the temperature gradient of the thermal source under test (TSUV) is sampled, the system emulates this gradient and applies it on a TEG, which can predict the potential of the TSUV. In addition, using long-range-based wireless connectivity, the proposed system operates remotely, meaning that the temperature gradient sampling process can be far away from the temperature gradient emulation process, allowing to evaluate thermal sources in very hard spots, for instance, inside building structures or faraway pipelines. Experimental results show the emulation of two potential thermal sources, namely, tree trunks and the back surface of the photovoltaic modules.
引用
收藏
页码:7962 / 7973
页数:12
相关论文
共 50 条
  • [11] Online Optimal Transmission Scheduling of an Energy Harvesting Sensor for Remote State Estimation
    Xiang, Haoxiang
    Zhong, Chenwei
    Yang, Jingwen
    Qiu, Xi'nan
    Rao, Hongxia
    2021 PROCEEDINGS OF THE 40TH CHINESE CONTROL CONFERENCE (CCC), 2021, : 1960 - 1965
  • [12] Application of Thermal Energy Harvesting from Photovoltaic Panels
    Demir, Hasan
    ENERGIES, 2022, 15 (21)
  • [13] Application of Thermal Energy Harvesting from Low-Level Heat Sources in Powering up WSN Node
    Abdal-Kadhim, Ali Mohammed
    Leong, Kok Swee
    2017 2ND INTERNATIONAL CONFERENCE ON FRONTIERS OF SENSORS TECHNOLOGIES (ICFST), 2017, : 131 - 135
  • [14] Theoretical modeling and experimental verification of a broadband microvibrational energy harvesting system
    Wei, Hongtao
    Wang, Wei
    Gao, Jiaqi
    Zhang, Qiang
    Guo, Pan
    Hu, Zhixin
    Li, Baolin
    Li, Zilin
    Wei, Ronghan
    ENERGY SCIENCE & ENGINEERING, 2024, 12 (06) : 2535 - 2552
  • [15] Experimental Verification of a Magnetically Geared Generator for Backpack Energy Harvesting System
    Abolhasani, Amin
    Safarpour, Ramin
    Pakdelian, Siavash
    IEEE TRANSACTIONS ON ENERGY CONVERSION, 2024, 39 (02) : 1143 - 1153
  • [16] Thermal energy harvesting system based on magnetocaloric materials
    Ahmim, Smail
    Almanza, Morgan
    Pasko, Alexandre
    Mazaleyrat, Frederic
    LoBue, Martino
    EUROPEAN PHYSICAL JOURNAL-APPLIED PHYSICS, 2019, 85 (01):
  • [17] An Automatic Emulation System for Environmental Thermal Energy Harvesting
    Camboin, Marcelo Miranda
    Rodrigues Villarim, Andrea Willa
    de Souza, Cleonilson Protasio
    Baiocchi, Orlando
    Cavalcanti Catunda, Sebastian Yuri
    Moreira, Cleumar da Silva
    2019 IEEE INTERNATIONAL INSTRUMENTATION AND MEASUREMENT TECHNOLOGY CONFERENCE (I2MTC), 2019, : 862 - 867
  • [18] Design and Application of Online Calibration System for Automatic Verification Pipeline of Electric Energy Data Acquisition Terminal
    Dong, Lijun
    RESEARCH IN MATERIALS AND MANUFACTURING TECHNOLOGIES, PTS 1-3, 2014, 835-836 : 1736 - 1743
  • [19] Application of piezoelectric electrets to an energy-harvesting system
    Tajitsu, Yoshiro
    Takarada, Jun
    Hiramoto, Masaki
    Nakatsuji, Takahiro
    Nakiri, Takuo
    Imoto, Kenji
    Kaimori, Shingo
    Shikata, Yoshiaki
    JAPANESE JOURNAL OF APPLIED PHYSICS, 2019, 58
  • [20] Review of piezoelectric energy harvesting system and application of optimization techniques to enhance the performance of the harvesting system
    Sarker, Mahidur R.
    Julai, Sabariah
    Sabri, Mohd Faizul Mohd
    Said, Suhana Mohd
    Islam, Md. Mainul
    Tahir, Muhammad
    SENSORS AND ACTUATORS A-PHYSICAL, 2019, 300