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Beilstein J. Nanotechnol. 2024, 15, 1453–1472, doi:10.3762/bjnano.15.117
Figure 1: Model of a HDCM under irradiation providing a schematic representation of the irradiation treatment...
Figure 2: Comprehensive visualization of the energy changes for the model of an iron-like nanomaterial with p...
Figure 3: The cap-type (lenticular) nucleation mode for the α→β phase transition in a nanopowder under irradi...
Figure 4: The nucleation energy change ΔGncl as a function of the number of atoms Nβ at different fixed N0. T...
Figure 5: Size-dependent and temperature-dependent α-phase stability diagram for the model of an iron-like na...
Figure 6: Comprehensive visualization of the energy changes. (a) Energy changes Δg for the β→α phase transfor...
Figure 7: The cap-type (lentils) nucleation mode for the β→α phase transition in a nanoparticle under irradia...
Figure 8: Energy difference ΔGncl as a function of the number of atoms Nα at different fixed sizes d (or N0) ...
Figure 9: Size-dependent and temperature-dependent β-phase stability diagram for the β→α-phase transition und...
Figure 10: The impact of different defect generation rates on the shift of curves corresponding to the conditi...
Figure 11: The impact of vacancy migration energies Emα and Emβ on the shift of curves corresponding to the co...
Figure 12: The impact of surface energies σα and σγ on the phase stability of small Fe nanoparticles. (a) Firs...