Development of a hybrid energy harvesting system based on thermoelectric and electromagnetic generators for use in industrial electric motors*

被引:4
作者
de Oliveira, Luiz Fernando Pinto [1 ]
Morais, Flavio Jose de Oliveira [3 ,4 ]
Manera, Leandro Tiago [2 ]
机构
[1] State Univ Campinas Unicamp, Ctr Energy & Petr Studies CEPETRO, R Cora Coralina 350,Cidade Univ, BR-13083896 Campinas, SP, Brazil
[2] State Univ Campinas Unicamp, Sch Elect & Comp Engn FEEC, Ave Albert Einstein 400,Cidade Univ, BR-13083852 Campinas, SP, Brazil
[3] Sao Paulo State Univ UNESP, Sch Sci & Engn FCE, Ave Domingos Costa Lopes 780, BR-17602679 Tupa, SP, Brazil
[4] Inst Ciencia & Tecnol Campus Sorocaba, Programa Posgrad Engn Elect Mestrado, Ave Tres Marco,511 Alto Boa Vista, BR-18087180 Sorocaba, SP, Brazil
关键词
Energy harvesting; Thermoelectric generator; TEG; Current transformer; CT; Ultra low-power; Internet of Things;
D O I
10.1016/j.seta.2024.103802
中图分类号
X [环境科学、安全科学];
学科分类号
08 ; 0830 ;
摘要
In Industry 4.0, advanced systems for predicting maintenance of industrial electric motors are being developed. These systems use electronic sensors and wireless communication in low-power circuits. To enable selfsustaining devices and long-term monitoring strategies, energy harvesting techniques are employed. This paper describes a hybrid energy harvesting system based on a Thermoelectric Generator (TEG) and Current Transformer (CT) that is used in an Internet of Things (IoT) vibration monitoring system for industrial electric motors. The proposed electronic circuit is designed to operate in extreme conditions of electrical energy shortage and allows for energy supply via capacitor, supercapacitor, and backup battery. A new mechanical coupling system is also presented for attaching TEGs to motors. The integration of TEGs and CTs resulted in a maximum power output of 320 mu W and energy autonomy of 80.76 min (via TEG), which was further improved to 1540 mu W after 10.32 min (via CT). The energy autonomy of the IoT device was extended from 2 to 33 days by using a hybrid energy storage circuit, exceeding the energy requirements for making the IoT device self-sustaining by 54.21%.
引用
收藏
页数:8
相关论文
共 43 条
[11]   Measurement of the electric energy storage capacity in solar thermoelectric generators' energy harvesting modules [J].
Dias, Pedro C. ;
Morais, Flavio J. O. ;
Duarte, Luis F. C. ;
Franca, Maria Bernadete M. ;
Spengler, Anderson W. ;
Cabot, Andreu .
INTERNATIONAL JOURNAL OF DISTRIBUTED SENSOR NETWORKS, 2017, 13 (04)
[12]   Autonomous Multisensor System Powered by a Solar Thermoelectric Energy Harvester With Ultralow-Power Management Circuit [J].
Dias, Pedro Carvalhaes ;
Oliveira Morais, Flavio Jose ;
de Morais Franca, Maria Bernadete ;
Ferreira, Elnatan Chagas ;
Cabot, Andreu ;
Siqueira Dias, Jose A. .
IEEE TRANSACTIONS ON INSTRUMENTATION AND MEASUREMENT, 2015, 64 (11) :2918-2925
[13]   Thermoelectric Energy Harvesting on Rotation Machines for Wireless Sensor Network in Industry 4.0 [J].
dos Santos, Adelson D. ;
de Brito, Silvio C. ;
Martins, Anderson, V ;
Silva, Filipe Figueredo ;
Morais, Flavio .
2021 14TH IEEE INTERNATIONAL CONFERENCE ON INDUSTRY APPLICATIONS (INDUSCON), 2021, :694-697
[14]  
e-peas Semiconductors, 2018, Highly efficient, regulated dual-outputs, ambient energy manager for TEG with optional primary battery
[15]  
Elforjani B, 2019, 2 C ENG TECHN SCI LI, P1
[16]  
Elforjani BA, 2018, Ph.D. thesis
[17]  
Gornevs Ilgvars, 2018, P BIENNIAL BALTIC EL
[18]  
Hawliczek P, 2017, INT SCI CONF ELECTR, P147
[19]  
Hernandes Jr LJ, 2001, WSEAS Trans Power Syst, V7, P81
[20]   Thermal Energy Harvesting WSNs Node for Temperature Monitoring in IIoT [J].
Hou, Liqun ;
Tan, Shudong ;
Zhang, Zhijuan ;
Bergmann, Neil W. .
IEEE ACCESS, 2018, 6 :35243-35249