因此，可以顯著抑制腐蝕區域附近的電荷轉移反應，並且表1中SEHi的R2

Therefore, the charge transfer reaction near the corrosion area can be significantly suppressed, and the R2 value of SEHi in Table 1 increases significantly at the third hour, which also has a self-repair function, because this phenomenon occurs after the corrosion reaction occurs. This result is consistent with the result of OCP measurement in Section 3.4.1. Figure 13 shows a schematic diagram of the degradation and protection mechanism of AZ31 magnesium alloy for each coating.

As a result, the charge transfer reaction near the corrosion area can be significantly suppressed, and the R2 value of SEHi in Table 1 increases significantly in the third hour, which also has a self-healing function, as this occurs after the corrosion reaction occurs. The results are consistent with 3.4.1 OCP measurements. Figure 13 shows a diagram of the degradation and protection of the AZ31 magnesium alloy for each coating.

Therefore, the charge transfer reaction near the corrosion region can be significantly inhibited, and the R2 value of sehi in Table 1 increases significantly in the third hour, which also has the self-healing function, because this phenomenon occurs after the corrosion reaction. This result is consistent with the OCP measurement in section 3.4.1. Fig. 13 shows the degradation and protection mechanism of AZ31 magnesium alloy with each coating.<br>