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Some reentrant and compensation characteristics of a defective mixed-spin Ising bilayer graphene-like structure

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Abstract

We have performed the finite cluster approximation, to explore some interesting characteristics of a bond-diluted mixed-spin Ising bilayer graphene-like structure, composed of a ferrimagnetically alternating A-layer with spin-3/2 and B-layer with spin-1. The implication of the diluted exchange couplings (JA, JB), as well as the crystal fields (DA, DB) on the phase diagrams and magnetizations, have been evaluated. In the pure case (pS = pσ = 1.0), compensation points arise only if JB exceeds a JA-dependent threshold value. The inclusion of defect shows that the compensation points are favored under the pS effect, contrarily to pσ awakening the JB strength, which destroys the compensation. By introducing the crystal fields, we have uncovered the possibility of a first-order transition under the DB effect. Finally, an unexpected reentrance has been identified, regardless of the bond concentrations (pS, pσ) or crystal fields (DA, DB) values.

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Authors and Affiliations

  1. Materials and Instrumentation, High School of Technology, Moulay Ismail University, Meknes, Morocco

    M. Mouhib, S. Bri, H. Mounir & M. D. Belrhiti

  2. Laboratory of Engineering Sciences (LES), Multidisciplinary Faculty Taza (FPT), Sidi Mohamed Ben Abdellah University, Fès, Morocco

    M. Mouhib & M. D. Belrhiti

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  1. M. Mouhib
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  2. S. Bri
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Mouhib, M., Bri, S., Mounir, H. et al. Some reentrant and compensation characteristics of a defective mixed-spin Ising bilayer graphene-like structure. Indian J Phys (2024). https://doi.org/10.1007/s12648-024-03249-6

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