Physical Review B · 2010 · 39 citations · 30 references
Natural SciencesMaterials SciencePhysicsCondensed Matter PhysicsSolid State PhysicsThin FilmsCurie TemperaturePhase TransitionsSize-dependent PropertiesThermal Properties Of MaterialsThin-film MaterialsCritical Temperature ScalingCritical ThicknessFerroelectric Thin FilmsFinite-size EffectsFinite-size ScalingThermodynamics Of Thin FilmsThickness DependenceThickness Effects
The thickness dependency of the Curie temperature in stress-free $\text{Pb}({\text{Zr}}_{0.5}{\text{Ti}}_{0.5}){\text{O}}_{3}$ ultrathin films under open-circuit conditions is revealed from the computation of some nontrivial statistical quantities (such as fourth-order cumulants), via a first-principles-based technique. For thicknesses above $16\text{ }\text{\AA{}}$, this dependency follows the usual finite-size scaling law with a critical exponent that is consistent with the one associated with the three-dimensional-random-Ising universality class. On the other hand, the Curie temperature-versus-film's thickness curve deviates from this scaling law below $12\text{ }\text{\AA{}}$ while being rather well described by an empirical equation down to $8\text{ }\text{\AA{}}$.
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