<p>This study explores the magnetic properties of a two-dimensional triangulene-like nanostructure using Monte Carlo simulations within a mixed-spin Blume-Capel model. We systematically analyze how the crystal field (<i>D</i>), external magnetic field (<i>H</i>), and anisotropic exchange couplings (<i>J</i><sub><i>xx</i></sub> and <i>J</i><sub><i>xy</i></sub>) affect the system’s magnetic behavior. Ground-state phase diagrams identify stable spin configurations at zero temperature, while temperature-dependent studies reveal changes in magnetization, susceptibility, and hysteresis. Our findings offer valuable insights into controlling the magnetic response of triangulene-like nanostructures, which are promising for applications in spintronics, nanoscale magnetic storage, and low-dimensional magnetism.</p>

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Magnetic behavior in 2D triangulene-like nanostructures: A Monte Carlo simulation approach

  • N. Saber,
  • Hussein. Sabbah,
  • Z. Fadil,
  • A. Samih,
  • Seong Cheol Kim,
  • Chaitany Jayprakash Raorane,
  • E. Salmani,
  • Khaled H. Mahmoud,
  • Abdulrahman A. Alsayyari,
  • Asmaa Al-Rasheedi

摘要

This study explores the magnetic properties of a two-dimensional triangulene-like nanostructure using Monte Carlo simulations within a mixed-spin Blume-Capel model. We systematically analyze how the crystal field (D), external magnetic field (H), and anisotropic exchange couplings (Jxx and Jxy) affect the system’s magnetic behavior. Ground-state phase diagrams identify stable spin configurations at zero temperature, while temperature-dependent studies reveal changes in magnetization, susceptibility, and hysteresis. Our findings offer valuable insights into controlling the magnetic response of triangulene-like nanostructures, which are promising for applications in spintronics, nanoscale magnetic storage, and low-dimensional magnetism.