Yousfi-Steiner et al. [10] proposed

Yousfi-Steiner等。[10]提出在产生氢氧之后，该电解槽应被视为与电解槽并联的发生器，而不是两个原始电解槽。如图7所示，单元1等于具有电流输出的发电机，<br>因为它的阴极和阳极分别供应有空气和氢气。同时，由于电池2的两个电极都被供给空气，因此可以将其视为电解电池。通过计算两个装置的端电压和电位，可以得出结论，在电池2的阴极中将形成足够高的电位，从而引起催化剂碳载体的腐蚀和Pt的溶解。因此，根据基尔霍夫（Kirchhoff）的电压定律，电池2阴极的电势可以变得足够高，以实现快速的碳和Pt腐蚀。产生的高电位的理论计算过程如图8所示。

Yousfi-Steiner等人[10]建议，在氢氧产生后，该电池应被视为与电解电池平行的发生器，而不是两个原始电池。如图 7 所示，单元 1 等于具有电流输出的发电机，<br>因为它的阴极和阳极分别提供空气和氢气。同时，Cell 2 可被视为电解电池，因为它的两个电极都提供空气。通过计算两个器件的端子电压和电位，得出在细胞2的阴极中形成足够高的电位，导致催化剂碳载体腐蚀和Pt溶解。因此，根据Kirchhoff的电压定律，Cell 2+s阴极的电位可以变得足够高，从而允许快速的碳和Pt腐蚀。图8显示了产生高电位的理论计算过程。

Yousfi-Steiner et al. [10] proposed that after the hydrogen–oxygen is generated, the cell should be regarded as a generator in parallel with an electrolysis cell, rather than two original cells. As shown in Fig. 7, Cell 1 is equal to a generator that has current output,since its cathode and anode are respectively supplied with air and hydrogen. Meanwhile, Cell 2 could be regarded as an electrolysis cell, since both of its electrodes are supplied with air. By calculating the terminal voltage and potential for both devices, it was concluded that a sufficiently high potential would form in the cathode of Cell 2, causing corrosion of the catalyst carbon carrier and dissolution of Pt. Therefore, according to Kirchhoff’s voltage law, the potential of Cell 2′s cathode can become high enough to allow fast carbon and Pt corrosion. The theoretical calculation process of the generated high potential is shown in Fig. 8.<br>