Honeycomb Lattice Magnetism

We work on artificial permalloy honeycomb lattices that realize tunable, frustrated Ising-like networks. We track how field history, temperature and geometry drive the system between ice-like, charge-ordered and diode-like conducting states, and relate these regimes to changes in their collective magnetic configurations.

Simple models then connect local vertex configurations and magnetic-charge textures to non-reciprocal transport signatures and ultra-low forward-voltage behaviour. This highlights routes toward neuromorphic elements and energy-efficient magnetic diodes built from geometrically engineered frustration.

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