零相频下离子导体的焦耳加热及其电解反应抑制

Lei Shi; Zongyi Han; Yixuan Feng; Changgeng Zhang; Qi Zhang; He Zhu; Shiping Zhu

doi:10.1016/j.eng.2022.03.004

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工程（英文） ›› 2023, Vol. 25 ›› Issue (6) : 138-143. DOI: 10.1016/j.eng.2022.03.004

研究论文

Letter

零相频下离子导体的焦耳加热及其电解反应抑制

Lei Shi ^a^,^b ,
Zongyi Han ^a ,
Yixuan Feng ^a ,
Changgeng Zhang ^a ,
Qi Zhang ^a ,
He Zhu ^a ,
Shiping Zhu ^a

作者信息 +

Joule Heating of Ionic Conductors Using Zero-Phase Frequency Alternating Current to Suppress Electrochemical Reactions

Lei Shi ^a^,^b ,
Zongyi Han ^a ,
Yixuan Feng ^a ,
Changgeng Zhang ^a ,
Qi Zhang ^a ,
He Zhu ^a ,
Shiping Zhu ^a

Author information +

History +

摘要

众所周知，当电流通过电导体时会产生热量。我们日常生活和工业中的各种应用都利用电子导体的加热，但很少有人关注离子导体用于加热的潜力。这是因为“不可避免的”电化学反应会导致不必要的导体电解、电极腐蚀和表面结垢。本文报道了没有电化学反应的离子导体的焦耳加热。采用零相频率的电流来抑制高电压下离子导体的电解。各种离子导体（液体和固体）的演示显示出无电化学反应的高效能量转换。这种加热方法简单、直接、快速、清洁、均匀，在工业和家庭的许多应用中具有巨大潜力。

Abstract

It is well known that heat is generated when an electric current passes through an electrical conductor. While various applications in our daily lives and industries utilize the heating of electronic conductors, little attention has been paid to the potential of ionic conductors for heating purposes. This is because of the “inevitable” electrochemical reactions, which can result in unwanted electrolysis of conductors, corrosion of electrodes, and surface fouling. This paper reports the Joule heating of ionic conductors without electrochemical reactions. Electricity with a zero-phase frequency is employed to suppress the electrolysis of ionic conductors at high voltages. Demonstrations with various ionic conductors, both liquids and solids, show highly efficient energy conversion free of electrochemical reactions. This heating method is simple, direct, fast, clean, and uniform, and it has great potential in numerous industrial and household applications.

Keywords

Joule heating / Ionic conductors / Electrolytes / Zero-phase frequency / Electrochemical corrosion

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Lei Shi, Zongyi Han, Yixuan Feng. 零相频下离子导体的焦耳加热及其电解反应抑制. Engineering. 2023, 25(6): 138-143 https://doi.org/10.1016/j.eng.2022.03.004

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