Metal thermoelectric harvester for wireless sensors

被引:5
作者
Kohler, E. [1 ]
Nilsson, T. M. J. [1 ]
Enoksson, P. [1 ]
机构
[1] Chalmers Univ Technol, Gothenburg, Sweden
关键词
metal thermoelectric harvester; wireless sensor; metal-metal thermoelectric; OPTIMIZATION; POWER;
D O I
10.1088/1361-665X/ab62dd
中图分类号
TH7 [仪器、仪表];
学科分类号
0804 ; 080401 ; 081102 ;
摘要
A metal thermoelectric energy harvester design with long metal couples was investigated for use with wireless sensors in environments where conventional thermoelectric harvesters are difficult to implement. Two thermoelectric harvesters with different designs was assembled by spot welding 110 mu m thick molybdenum foil and 150 mu m thick nickel foil together in a zigzag-pattern, one 3-couples design (55 mm length and 6 mm width) insulated with glass fiber at the hot side and polyimide tape at the cold side, and one 10-couples design (300 mm length and 3 mm width) insulated with polyimide tape across the entire length. The voltage- and power output were measured at different temperatures and load resistance with maximum power output of 588 mu W at 269 degrees C for the 3-couples harvester and 868 mu W at 241 degrees C for the 10-couples harvester. The power output after power management electronics for the 10-couples harvester measured 290 mu W at 51 mV. The harvesters were compared to a conventional semiconductor thermoelectric device coupled with a 300 mm long copper heat bridge giving a power output after power management electronics of 170 mu W at 41 mV with 226 degrees C temperature gradient of the environment.
引用
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页数:11
相关论文
共 22 条
[1]   New experimental methodology, setup and LabView program for accurate absolute thermoelectric power and electrical resistivity measurements between 25 and 1600 K: Application to pure copper, platinum, tungsten, and nickel at very high temperatures [J].
Abadlia, L. ;
Gasser, F. ;
Khalouk, K. ;
Mayoufi, M. ;
Gasser, J. G. .
REVIEW OF SCIENTIFIC INSTRUMENTS, 2014, 85 (09)
[2]  
Al Dahoud A, 2018, NODEMCU V3 FAST IOT
[3]  
[Anonymous], 2011, TRUE SYST ON CHIP SO
[4]  
Bitschi A, 2009, MODELLING THERMOELEC
[5]   Welding techniques for battery cells and resulting electrical contact resistances [J].
Brand, Martin J. ;
Schmidt, Philipp A. ;
Zaeh, Michael F. ;
Jossen, Andreas .
JOURNAL OF ENERGY STORAGE, 2015, 1 (7-14) :7-14
[6]   Energy Profiling in Practical Sensor Networks: Identifying Hidden Consumers [J].
Brusey, James ;
Kemp, John ;
Gaura, Elena ;
Wilkins, Ross ;
Allen, Mike .
IEEE SENSORS JOURNAL, 2016, 16 (15) :6072-6080
[7]   A 32 mV/69 mV input voltage booster based on a piezoelectric transformer for energy harvesting applications [J].
Camarda, Antonio ;
Romani, Aldo ;
Macrelli, Enrico ;
Tartagni, Marco .
SENSORS AND ACTUATORS A-PHYSICAL, 2015, 232 :341-352
[8]   Startup Techniques for 95 mV Step-Up Converter by Capacitor Pass-On Scheme and VTH-Tuned Oscillator With Fixed Charge Programming [J].
Chen, Po-Hung ;
Ishida, Koichi ;
Ikeuchi, Katsuyuki ;
Zhang, Xin ;
Honda, Kentaro ;
Okuma, Yasuyuki ;
Ryu, Yoshikatsu ;
Takamiya, Makoto ;
Sakurai, Takayasu .
IEEE JOURNAL OF SOLID-STATE CIRCUITS, 2012, 47 (05) :1252-1260
[9]   THE ABSOLUTE SCALE OF THERMOELECTRIC POWER AT HIGH TEMPERATURE [J].
CUSACK, N ;
KENDALL, P .
PROCEEDINGS OF THE PHYSICAL SOCIETY OF LONDON, 1958, 72 (467) :898-901
[10]  
Farmer M G, 1870, IMPROVEMENT THERMO E, Patent No. US109603A