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This is a Density Functional Theory study.

September 10, 2025Scientific ReportsOpen Access

Momentum-locked spin between topological and defect states in 1D patterns on bilayer graphene

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Theoretical investigation reveals topological states and spin-polarized states in bilayer graphene, indicating novel spintronics applications.

Topological and defect states in bilayer graphene create spin-conducting channels, enhancing spintronics applications.
Findings show spin-momentum locking and ferromagnetically coupled states existing even without gate voltage.
Density functional theory calculations reveal hybridization of topological and magnetic states under n-doping conditions.
The study suggests potential for modulation of charge densities along defect lines, enabling new characteristics in valleytronics.

Guerrero‐Avilés et al. (2025) studied this question.

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September 10, 2025Scientific ReportsOpen Access

View Full Paper

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Authors

Theoretical investigation reveals topological states and spin-polarized states in bilayer graphene, indicating novel spintronics applications.

Topological and defect states in bilayer graphene create spin-conducting channels, enhancing spintronics applications.
Findings show spin-momentum locking and ferromagnetically coupled states existing even without gate voltage.
Density functional theory calculations reveal hybridization of topological and magnetic states under n-doping conditions.
The study suggests potential for modulation of charge densities along defect lines, enabling new characteristics in valleytronics.

Guerrero‐Avilés et al. (2025) studied this question.

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