Bulk and interface scaling properties of the chiral clock model
Journal of Physics A: Mathematical and General 18:12 (1985) 2343-2355
Abstract:
The authors use a finite-size scaling calculation to study the phase diagram of the two-dimensional, three-state, chiral clock model. Bulk properties, the ferromagnetic transition temperature and associated exponents are calculated from the scaling of the susceptibility and interface behaviour, the position of the interface wetting line and its exponents, from considering the net adsorption. They also present preliminary results on interface properties which are sensitive to the transition between the paramagnetic and incommensurate phases.When All Length Scales are Important
Physics Bulletin IOP Publishing 36:9 (1985) 383-386
The instability of long-period commensurate phases in the presence of quenched impurities
Journal of Physics C: Solid State Physics 18:20 (1985) 3911-3918
Abstract:
Domain-wall arguments are used to study the stability of long-period commensurate phases in the presence of quenched impurities. It is found that in three dimensions phases with periodicity larger than a critical value lc - 1/c, where c is the impurity concentration, are unstable. This results in disordered 'spin-glass'-like phases. The effect can be studied experimentally by varying the impurity concentration in modulated systems. © 1985, IOP Publishing Ltd.Axial Ising model with third-neighbour interactions
Journal of Physics C: Solid State Physics 18:14 (1985)
Abstract:
A three-dimensional Ising model with competing interactions up to third-neighbour layers is analysed using low-temperature series expansions and mean field theory. New sequences of phases springing from multiphase lines are found and the crossover to the behaviour of the ANNNI model is studied. Results are related to experimental findings on alloys, ferroelectrics, and polytypes. © 1985 The Institute of Physics.Finite-size scaling of two-dimensional axial next-nearest-neighbor Ising models
Physical Review B 31:11 (1985) 7166-7170