Deep-dive paper
The electronic properties of graphene
The definitive review of graphene's Dirac-fermion electronics — the reference that characterises the candidate absorber material and its transport velocities.
Why it matters
The phonon-velocity factor v_ph and the very idea of a suitable absorber need a concrete, well-characterised material. Graphene is the most studied two-dimensional candidate, and this review is its standard description.
Method
A comprehensive theoretical and experimental synthesis of graphene's band structure, charge transport, phonons and mechanical properties, drawing together hundreds of primary results.
Mechanism
Electrons in graphene behave as massless Dirac fermions with a Fermi velocity near 10⁶ m/s, and the lattice supports fast, well-defined phonon modes that carry momentum efficiently.
Results
It establishes the quantitative electronic and vibrational parameters — velocities, mobilities, phonon dispersion — that any device-level model of a graphene absorber must use.
Significance
It is the canonical materials-science reference for graphene and grounds the absorber-and-transport assumptions the formula makes in a real, measured material.
Formula-term mapping
Informs v_ph and the absorber platform: the lattice-transport velocity and the material response the formula assumes are taken from measured graphene physics.