On the contrary, Priyotomo and co-workers found that the EIC susceptibility of as-cold rolled Ni3(Si,Ti) with the addition of Mo was lower than that of as-cold rolled Ni3(Si,Ti), which showed the beneficial effect of Mo (Priyotomo et al. 2015).
Samples were prepared from as-cold rolled (90% thickness reduction), stabilized (120 °C, 20 h) and recrystallized sheets (400 °C, 10 min), respectively.
They consisted of three time intervals with an initial rise of elongation, constant elongation, and second rise in elongation to failure as well as those intervals for as-cold rolled Ni3(Si,Ti) and Ni3(Si,Ti) with 2Mo (Priyotomo et al. 2015).
In addition, it was found that the slope in Eq. (1) was the same as those for both as-cold rolled Ni3(Si,Ti) and Ni3(Si,Ti) with 2Mo (Priyotomo et al. 2015), Al-Cu alloy (Izumoto and Nishimura 2010), pure Ti (Nishimura et al. 2008), and austenitic stainless steels (Alyousif and Nishimura 2008).
From the results acquired in the previous section, it was found that the addition of Mo to as-annealed Ni3(Si,Ti) could reduce the EIC (HE) susceptibility as well as as-cold rolled Ni3(Si,Ti) with 2Mo Priyotomoo et al. 2015), although the straight line in Fig 15 indicates that the EIC of these two intermetallic compounds occurred by the same mechanism.
The relationships were found to be divided into three regions (1 3 in Fig. 2), where arrows in region 3 mean that the specimens of Ni3(Si,Ti) were not fractured within a laboratory scale ( <107 s) as well as those regions for as-cold rolled Ni3(Si,Ti) and Ni3(Si,Ti) with 2Mo (Priyotomo et al. 2015).
The result thus obtained indicated that the applied stress dependence of the three parameters was basically the same as those for as-cold rolled Ni3(Si,Ti) and Ni3(Si,Ti) with 2Mo (Priyotomo et al. 2015), austenitic stainless steel (Alyousif and Nishimura 2006; Alyousif and Nishimura 2007), Al-Cu alloy (Izumoto and Nishimura 2010), and pure Ti (Nishimura et al. 2008).
Furthermore, the high value of t ss/t f and the slope of the linear relationship between log l ss and log t f were close to those for both as-cold rolled Ni3(Si,Ti) and Ni3(Si,Ti) with 2Mo Priyotomo et al. 2015), Al-Cu alloy (Izumoto and Nishimura 2010), pure Ti (Nishimura et al. 2008), austenitic stainless steel (Alyousif and Nishimura 2008), and that suffered HE.
This is essentially the same nucleation process as observed in cold rolled and annealed IF steel.
Subsequently, PANI with superhydrophobic surface (SH-PANI) of biomimetic natural leaf was fabricated, using PDMS as negative template, through casting onto cold rolled steel (CRS) electrode.
The correlation for cold rolled condition shows improvement with the new approach but is not as good as for the annealed one.
