2012/01/01 by Gabriel C. Constantinescu, Gabriel Constantinescu, Agnieszka Kuc +2 · 7 citations
Chemistry · Materials Science · Medicine · Physics and Astronomy · #2D Materials and Applications #Ab initio #Ab initio quantum chemistry methods #Atom (system on chip) #Bilayer #Boron and Carbon Nanomaterials Research #Boron nitride #Chemistry #Computational chemistry #Condensed matter physics #Crystallography #Density functional theory #Dispersion (optics) #Geography #Glaucoma and retinal disorders #Graphene #Graphene research and applications #Hexagonal boron nitride #Materials science #Medicine #Membrane #Molecular physics #Molecule #Nanotechnology #Nuclear magnetic resonance #Ophthalmology #Ophthalmology and Eye Disorders #Ophthalmology and Visual Impairment Studies #Optometry #Perturbation theory (quantum mechanics) #Physics #Quantum mechanics #Retinal #Stacking #cond-mat.mtrl-sci
paper · pdf · doi:10.1103/physrevlett.111.036104
published as Physical Review Letters 111, 036104 (2013) · Accepted to Phys. Rev. Lett., 10 pages, 2 figures, SI provided
openalex publication_date 2012/01/01 · arxiv created 2013/07/02 · arxiv updated 2015/06/16 · openalex created_date 2025/10/10 · openalex updated_date 2026/07/02
The stacking orders in layered hexagonal boron nitride bulk and bilayers are studied using high-level ab initio theory [local second-order Møller-Plesset perturbation theory (LMP2)]. Our results show that both electrostatic and London dispersion interactions are responsible for interlayer distance and stacking order, with AA' being the most stable one. The minimum energy sliding path includes only the AA' high-symmetry stacking, and the energy barrier is 3.4 meV per atom for the bilayer. State-of-the-art density functionals with and without London dispersion correction fail to correctly describe the interlayer energies with the exception of a Perdew-Burke-Ernzerhof functional intended for solid state and surface systems that agrees very well with our LMP2 results and experiment.