The presence of two radioactive parents provides a second major advantage because, as daughter products, lead atoms are formed at different rates and their relative abundance undergoes large changes as a function of time.
Graphene are formed at different mechanism on different crystalline facets for Pt, Ni and Cu.
Calculations showed that the T-Al9FeNi, γ-Al7Cu4Ni, δ-Al3CuNi and ε-Al3Ni phases are formed at different Ni levels.
XRD experimental results demonstrate that the crystalline phases of CuO and Cu2O were formed at different thermal oxidation temperatures.
Analysis of the clad layers showed that an almost featureless structure was formed at different dilutions between 1% and 4%.
The study also revealed that the core shell bimetallic nanostructures with different morphologies (spherical and oval-shape) were formed at different ratios of chloroaurate and silver nitrate solution.
The powder mass is formed at different temperature, i.e., 120 °C and 180 °C applying 130 kN axial loading simultaneously from top and bottom punches.
Nanosized domain structures are formed at different rates, which allows flow in the viscous phase and accommodates shrinkage within the bulk of the material [1],[7].
As an example, for the solution that included 0.3 M ZnSO4·7H2O and 0.3 M H3BO3, nanowires were formed at different conditions, which resulted in different colors of the surface (Table 2).
Different Pt species are formed at different positions of the Ag network: Pure Pt on top and Ag1Pt1 alloy at the interface between the Ag network and the deposited Pt film.
