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The realization of topological antiferromagnetic (AFM) solitons in realmaterials is a major goal towards their use in information technology. Whilethey bear various advantages with respect to their ferromagnetic cousins, theirobservation is scarce. Utilizing first-principles simulations, here we predictnew chiral particles in the realm of AFM topological magnetism, frustratedmultimeronic spin-textures hosted by a N\'eel magnetic state, arising in singleMn layers directly grown on Ir(111) surface or interfaced with Pd-based films.These topological structures are intrinsic, i.e. they form in a single AFMmaterial, can carry distinct topological charges and can combine in variousmultimeronic sequences with enhanced stability against external magneticfields. We envision the frustrated N\'eel AFM multimerons as excitinghighly-sought after AFM solitons having the potential to be utilized in novelspintronic devices hinging on non-synthetic AFM quantum materials.

Intrinsic antiferromagnetic multimeronic N\'eel spin-textures in ultrathin films