First-principles calculations predict tunable electronic and magnetic edge states in Ta2Ni3Te5 nanoribbons, and claim the monolayer is an excitonic insulator because model exciton binding exceeds the assumed gap.
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Diverse edge states of nanoribbons and excitonic insulator states of the monolayer Ta2Ni3Te5
First-principles calculations predict tunable electronic and magnetic edge states in Ta2Ni3Te5 nanoribbons, and claim the monolayer is an excitonic insulator because model exciton binding exceeds the assumed gap.