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Graphene-nickel interfaces: a review.

Arjun Dahal¹, Matthias Batzill

¹Department of Physics, University of South Florida, Tampa, FL 33620, USA. mbatzill@usf.edu.

|January 31, 2014

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Graphene on nickel exhibits unique electronic and magnetic properties due to strong chemical interactions. These changes, including a band gap opening, prevent typical Raman spectroscopy signals.

Area of Science:

Materials Science
Surface Science
Condensed Matter Physics

Background:

Graphene on nickel represents a model system for graphene-metal interfaces.
Strong chemical interactions arise from d-electron hybridization between nickel and graphene's π-orbitals.

Purpose of the Study:

To review the fundamental physical properties of graphene on Ni(111).
To discuss graphene formation, thermal stability, and nickel-carbide interactions.
To describe graphene growth mechanisms and potential applications.

Main Methods:

Surface science studies in ultra-high vacuum.
Analysis of electronic structure, phonon dispersion, and magnetic properties.
Review of chemical vapor deposition growth modes.

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Main Results:

Significantly reduced graphene-nickel separation (0.21 nm) compared to van der Waals gaps.
Opening of a band gap and shifting of the π-band by ~2 eV below the Fermi-level.
Induction of a magnetic moment in graphene by ferromagnetic nickel, altering phonon dispersion and preventing Raman spectra.

Conclusions:

Graphene on nickel displays altered geometric, electronic, and magnetic properties.
Nickel-catalyzed synthesis enables complex graphene structures.
Graphene-nickel interfaces offer potential for novel applications.