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自主火山监测站的前景:来自喷气孔的热电发电实验研究。

Prospects of Autonomous Volcanic Monitoring Stations: Experimental Investigation on Thermoelectric Generation from Fumaroles.

作者信息

Catalan Leyre, Araiz Miguel, Aranguren Patricia, Padilla German Domingo, Hernandez Pedro Antonio, Perez Nemesio Maria, Noceda Celestino Garcia de la, Albert Jose Francisco, Astrain David

机构信息

Department of Engineering, Institute of Smart Cities, Public University of Navarre, 31006 Pamplona, Spain.

Instituto Volcanologico de Canarias (INVOLCAN), 38320 San Cristobal de La Laguna, Spain.

出版信息

Sensors (Basel). 2020 Jun 23;20(12):3547. doi: 10.3390/s20123547.

DOI:10.3390/s20123547
PMID:32585927
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC7349418/
Abstract

Fumaroles represent evidence of volcanic activity, emitting steam and volcanic gases at temperatures between 70 and 100 ∘ C . Due to the well-known advantages of thermoelectricity, such as reliability, reduced maintenance and scalability, the present paper studies the possibilities of thermoelectric generators, devices based on solid-state physics, to directly convert fumaroles heat into electricity due to the Seebeck effect. For this purpose, a thermoelectric generator composed of two bismuth-telluride thermoelectric modules and heat pipes as heat exchangers was installed, for the first time, at Teide volcano (Canary Islands, Spain), where fumaroles arise in the surface at 82 ∘ C . The installed thermoelectric generator has demonstrated the feasibility of the proposed solution, leading to a compact generator with no moving parts that produces a net generation between 0.32 and 0 . 33 W per module given a temperature difference between the heat reservoirs encompassed in the 69- 86 ∘ C range. These results become interesting due to the possibilities of supplying power to the volcanic monitoring stations that measure the precursors of volcanic eruptions, making them completely autonomous. Nonetheless, in order to achieve this objective, corrosion prevention measures must be taken because the hydrogen sulfide contained in the fumaroles reacts with steam, forming sulfuric acid.

摘要

喷气孔是火山活动的证据,它在70至100摄氏度的温度下排放蒸汽和火山气体。由于热电具有可靠性高、维护成本低和可扩展性强等众所周知的优点,本文研究了基于固态物理的热电发电机将喷气孔热量因塞贝克效应直接转化为电能的可能性。为此,首次在西班牙加那利群岛的泰德火山安装了由两个碲化铋热电模块和作为热交换器的热管组成的热电发电机,该火山表面喷气孔温度为82摄氏度。所安装的热电发电机已证明了所提解决方案的可行性,打造出了一种无移动部件的紧凑型发电机,在热储之间的温差处于69至86摄氏度范围时,每个模块的净发电量为0.32至0.33瓦。鉴于这些结果可为测量火山喷发前兆的火山监测站供电,使其完全实现自主运行,因而很有意义。尽管如此,为实现这一目标,必须采取防腐蚀措施,因为喷气孔中所含的硫化氢会与蒸汽发生反应,形成硫酸。

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