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Beilstein J. Nanotechnol. 2025, 16, 510–519, doi:10.3762/bjnano.16.39
Figure 1: Formation energy, Ef per atom as a function of μN, for triangular nanopores as shown below in Figure 3. Fro...
Figure 2: Rhombic nanopores in free-standing h-BN monolayers. (a) Rhombic pore with B–H and N–H edges. (b) Rh...
Figure 3: Triangular nanopores in free-standing h-BN monolayers. Triangular pores with (a) B–H and (b) N–H ed...
Figure 4: Diagram illustrating the various adsorption positions of the water molecule on h-BN nanosheets with...
Figure 5: Density of states of a system composed of water and rhombic pore (black line), isolated water molec...
Figure 6: Distances between water molecule atoms and a hydrogen atom at N–H edges, orientations 1–3, and B–N ...
Figure 7: Illustration of the adsorption position of a water molecule on a h-BN nanosheet with triangular por...
Beilstein J. Nanotechnol. 2020, 11, 1801–1808, doi:10.3762/bjnano.11.162
Figure 1: (a) AFM image of a folded edge of a talc flake (green-orange shades) with a thickness of approximat...
Figure 2: Carbon atom positions (gray circles) in cross sections of folded edges in (a) monolayer graphene an...
Figure 3: The value of = as a function of 1/h for the nine measured talc samples. h is a directly measured ...
Figure 4: (a) Best fit of Equation 3 to forces and deformations measured using AFM on a 5.3 nm thick talc fold. (b) Bes...