A kinetic study on non-isothermal crystallization of the glassy alloy Sb0.16As0.43Se0.41

A study on the non-isothermal transformation kinetics of glassy alloys when the nucleation frequency and crystal growth rate depend on time as a power law

“…(20) changes much faster compared to the power law, in square brackets, the latter can be treated almost as a constant, in accordance with the literature [24], and then Eq. (20) becomes…”

“…The theoretical basis to interpret DSC results is provided by the formal theory of transformation kinetics [14][15][16][22][23][24]. This formal theory supposes that the crystal growth rate, in general, is anisotropic, and therefore, the volume of a region originating at time t = (1 −˛) ( being the nucleation period and where˛is a parameter equal to zero in the case of continuous nucleation, and equal to the unit in the case of "site saturation" [25]) is then.…”

Effect of annealing on the kinetics of glass transition and crystallization in Co–Fe–Ta–B amorphous alloy

“…It is known that n = m + 1 for a quenched glass containing no nuclei and n = m for a glass containing a sufficiently large number of nuclei [34,36]. One way for determining the m value is to observe the change of n with reheating of the specimen at the nucleation temperature.…”

An alternative method for analyzing the non-isothermal glass-crystal transformation kinetics

“…The theoretical basis for interpreting DTA or DSC results is provided by the formal theory of transformation kinetics [10][11][12][13]16,17]. This formal theory supposes that the crystal growth rate, in general, is anisotropic, and therefore, the volume of a region originating at time t = τ (τ being the nucleation period) is then…”